A METHOD OF FABRICATING A RESISTIVE GAS SENSOR DEVICE

    公开(公告)号:MY177552A

    公开(公告)日:2020-09-18

    申请号:MYPI2012701100

    申请日:2012-12-07

    Applicant: MIMOS BERHAD

    Abstract: A method of fabricating a resistive gas sensor device is provided, the method includes the steps of, depositing an insulating layer (105) on a silicon substrate layer (101) and depositing a conductive metal layer (103) onto the insulating layer (105), characterized in that, the method further includes the steps of depositing a thin metallic catalyst layer (107) covering a surface of the conductive metal layer (103) and etching the metal catalyst layer (107) and growing nanostructures (109) from the metal catalyst layer (107) that is exposed, such that the nanostructures (109) are interconnected with each other and the conductive metal layer (103).

    MICRO-HOTPLATE BASED GAS SENSOR
    5.
    发明专利

    公开(公告)号:MY174926A

    公开(公告)日:2020-05-22

    申请号:MYPI2010700093

    申请日:2010-12-10

    Applicant: MIMOS BERHAD

    Abstract: The present invention provides a chemo-resistive gas sensor in 5 which consists of two chemo-resistive sensor elements [16, 36] placed on both sides of a micro-hotplate array [26]. It is capable of providing lower power consumption compared to existing one-side sensing membrane gas sensor. An embodiment of the invention has the two sensor elements to be of same material to increase the sensitivity of the device. Another embodiment of the invention has two sensor elements of different material to allow different gas to be monitored. The proposed two membranes may be arranged to provide multiple gas solution for remote application and device miniaturization. Figure 1

    VALVELESS MICROPUMP
    6.
    发明专利

    公开(公告)号:MY170998A

    公开(公告)日:2019-09-23

    申请号:MYPI20085246

    申请日:2008-12-23

    Applicant: MIMOS BERHAD

    Abstract: The present invention provides a valveless micropump (100) comprises an inlet (110) and. an outlet ( 112); a reservoir (120) positioned between the inlet ( 110) and the outlet (112), the reservoir (120) having a chamber (130) defined therein, and the inlet (110) and the outlet (112) having a fluid communication with the chamber (130) through a respective diffuser (106, 108) serving as the valveless feature; and a fluid driving means defines at the reservoir (120), the fluid driving means operably drives fluid from the inlet (100) to the outlet (112) through the diffuser (106), the chamber (130) and the diffuser (108) accordingly.

    A METHOD OF FORMING A DEVICE
    7.
    发明专利

    公开(公告)号:MY167491A

    公开(公告)日:2018-08-30

    申请号:MYPI2013702254

    申请日:2013-11-25

    Applicant: MIMOS BERHAD

    Abstract: THE PRESENT INVENTION RELATES TO A METHOD OF FORMING A DEVICE, MORE PARTICULARLY THE PRESENT INVENTION RELATES TO A METHOD OF FORMING A GRAPHENE DEVICE BY EFFECTIVELY TRANSFERRING A GRAPHENE LAYER COMPRISING THE STEPS OF PROVIDING AT LEAST A FIRST MATERIAL (11) LAYER, DEPOSITING AT LEAST A SECOND MATERIAL (12) LAYER ON SAID AT LEAST A FIRST MATERIAL (11) LAYER, AND DEPOSITING AT LEAST A CATALYST LAYER (21) ON SAID AT LEAST A SECOND MATERIAL (12) LAYER FOR FORMING NANOSTRUCTURES (22), ETCHING SAID AT LEAST A FIRST MATERIAL (11) LAYER, AND TRANSFERRING REMAINING LAYERS OF SAID AT LEAST A SECOND MATERIAL (12) LAYER WITH NANOSTRUCTURES (22) ONTO AT LEAST A SUBSTRATE (13). MOST ILLUSTRATIVE DRAWING:

    A PRESSURE SENSOR WITH MAGNETIC NANOPARTICLES

    公开(公告)号:MY184622A

    公开(公告)日:2021-04-09

    申请号:MYPI2013702271

    申请日:2013-11-26

    Applicant: MIMOS BERHAD

    Abstract: The present invention relates to a piezoresistive pressure sensor which detects applied pressure by measuring the change of electrical conductivity of the magnetic nanoparticles (3) in response to the application of mechanical stress onto the diaphragm (1). The pressure sensor comprises conductive electrodes (2) formed on the diaphragm (1) which is provided on a substrate (4). Magnetic nanoparticles (3) are deposited on the conductive electrodes (2) for electrically connecting the conductive electrodes (2) and changing electrical conductivity when stress is applied.

    FULLY INTEGRATED ISFET - VALVELESS MICROPUMP

    公开(公告)号:MY178352A

    公开(公告)日:2020-10-08

    申请号:MYPI20071674

    申请日:2007-10-01

    Applicant: MIMOS BERHAD

    Abstract: The present invention relates to a fully integrated ISFET valveless micropump for use as a pH sensor and as a chemical based sensor especially intended for Wireless Sensor Network (WSN) characterized in that wherein the valveless pump with ISFET is embedded along a pump channel and temperature sensors at its inlet and wherein a membrane in the middle is the pump diaphragm and is electrostatically actuated by an electrode above it which deposited on the glass and wherein when the membrane controlled by a microcontroller is in motion, fluid or gas would be pumped in thru the inlet and travels thru the channel where ISFET is located and out thru the outlet.

    AN IMPROVED MICRO CHECK VALVE
    10.
    发明专利

    公开(公告)号:MY173074A

    公开(公告)日:2019-12-24

    申请号:MYPI20072044

    申请日:2007-11-20

    Applicant: MIMOS BERHAD

    Inventor: LEE HING WAH

    Abstract: The present invention discloses a micro check valve (100) for use in controlling the flow of fluid across a channel (160) in a micro-fluidic system, said valve (100) housed within a valve seat (140) and comprising a polygonal mass (110) connected to a base (120) through a resilient means (130). The mass (110) is a polygonal member with a predetermined thickness having a first side surface (101) exposed to the entry of fluid flowing in the channel (160), a second side surface (102) distanced apart and parallel to the first side surface (101 ), and having a longer length than the first side surface (101 ), a third side surface (103) and a fourth side surface (104) adjoining both ends of the first side surface (101) and the second side surface (102), said third side surface (103) and fourth side surface {104) disposed with a plurality of protruding dimples (106). Elastic deformation of the resilient means (130) due to pressure exerted on the mass (110) controls the flow of fluid across the channel (160), whereby establishment of a sealing contact between the mass (110) and the valve seat (140) blocks the flow of fluid across the channel (160) and a release of sealing contact between the mass (110) and the valve seat (140) allows the flow of fluid across the channel (160).

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