mhurhangee/ep-ind-claims huggingface dataset:
An all-silicon electrode capacitive transducer (100, 410) comprising: a movable silicon microstructure (103, 203) coupled to a glass substrate (109, 209), the movable silicon microstructure having a movable silicon electrode (104, 204), the glass substrate having a top surface and at least a first recess formed in the top surface, the movable silicon electrode having a first flat surface parallel to a plane of the top surface of the glass substrate, the movable silicon electrode having a first electronic work function; and a stationary silicon electrode (105, 205) coupled to the glass substrate, the stationary silicon electrode adjacent to the movable silicon electrode, the stationary silicon electrode configured to sense or actuate displacement of the movable silicon microstructure, wherein the stationary silicon electrode has a second flat surface parallel to the first flat surface, the stationary silicon electrode having a second electronic work function equal to the first electronic work function, wherein the stationary silicon electrode is coupled to a surface of the first recess. a movable silicon microstructure (103, 203) coupled to a glass substrate (109, 209), the movable silicon microstructure having a movable silicon electrode (104, 204), the glass substrate having a top surface and at least a first recess formed in the top surface, the movable silicon electrode having a first flat surface parallel to a plane of the top surface of the glass substrate, the movable silicon electrode having a first electronic work function; and a stationary silicon electrode (105, 205) coupled to the glass substrate, the stationary silicon electrode adjacent to the movable silicon electrode, the stationary silicon electrode configured to sense or actuate displacement of the movable silicon microstructure, wherein the stationary silicon electrode has a second flat surface parallel to the first flat surface, the stationary silicon electrode having a second electronic work function equal to the first electronic work function, wherein the stationary silicon electrode is coupled to a surface of the first recess.
A method of controlling access of nodes (2, 3) to at least two coexisting wireless communication systems, which coexisting wireless communication systems are configured to share a frequency spectrum in a common coverage area, wherein each node is configured to access at least one wireless communication system in dependence of at least one access parameter, wherein the common coverage area is divided into at least two geographically defined zones (Z1, Z2, Z3, Z4), and wherein each node in the common coverage area is associated with at least one geographically defined zone, the method comprising: a control unit collecting usage data indicative of usage of the shared frequency spectrum by the nodes in the geographically defined zone, the control unit determining, by using the usage data, a relationship between the respective shared frequency spectrum usages of the wireless communication systems per geographically defined zone, the control unit determining for each geographically defined zone, by using the relationship between the respective frequency spectrum usages, at least one access parameter configured to allow at least one node associated with the respective geographically defined zone access to at least one of the coexisting wireless communication systems, and the control unit transmitting the access parameters to the respective nodes. which coexisting wireless communication systems are configured to share a frequency spectrum in a common coverage area, wherein each node is configured to access at least one wireless communication system in dependence of at least one access parameter, wherein the common coverage area is divided into at least two geographically defined zones (Z1, Z2, Z3, Z4), and wherein each node in the common coverage area is associated with at least one geographically defined zone, a control unit collecting usage data indicative of usage of the shared frequency spectrum by the nodes in the geographically defined zone, the control unit determining, by using the usage data, a relationship between the respective shared frequency spectrum usages of the wireless communication systems per geographically defined zone, the control unit determining for each geographically defined zone, by using the relationship between the respective frequency spectrum usages, at least one access parameter configured to allow at least one node associated with the respective geographically defined zone access to at least one of the coexisting wireless communication systems, and the control unit transmitting the access parameters to the respective nodes.
A vital sign measurement apparatus (1B, 1C) comprising: an input operation section that enables an operator to perform input operation; a first measurement section capable of measuring first vital signs; a second measurement section that can measure second vital signs; a first operating system; a second operating system; a first arithmetic processing section that runs on the first operating system and that arithmetically processes the first vital signs measured by the first measurement section on the basis of an input signal from the input operation section, thereby generating a first arithmetically processed signal; a second arithmetic processing section that runs on the second operating system, that is communicable with the first arithmetic processing section, and that generates a second arithmetically processed signal on the basis of the input signal from the input operation section by use of the first arithmetically processed signal transmitted from the first arithmetic processing section and of the second vital signs measured by the second measurement section; and an output control section that can receive the first arithmetically processed signal produced by the first arithmetic processing section and the second arithmetically processed signal produced by the second arithmetic processing section and that outputs at least one of the received arithmetically processed signals. an input operation section that enables an operator to perform input operation; a first measurement section capable of measuring first vital signs; a second measurement section that can measure second vital signs; a first operating system; a second operating system; a first arithmetic processing section that runs on the first operating system and that arithmetically processes the first vital signs measured by the first measurement section on the basis of an input signal from the input operation section, thereby generating a first arithmetically processed signal; a second arithmetic processing section that runs on the second operating system, that is communicable with the first arithmetic processing section, and that generates a second arithmetically processed signal on the basis of the input signal from the input operation section by use of the first arithmetically processed signal transmitted from the first arithmetic processing section and of the second vital signs measured by the second measurement section; and an output control section that can receive the first arithmetically processed signal produced by the first arithmetic processing section and the second arithmetically processed signal produced by the second arithmetic processing section and that outputs at least one of the received arithmetically processed signals.
A water-based adhesive composition comprising a waterborne adhesive resin and having a concentration of ionic components of less than 100 ppm, wherein the waterborne adhesive resin comprises a polymer of a monomer mixture including 90 to 99.9 parts by weight of a (meth)acrylic acid ester monomer and 0.1 to 10 parts by weight of a crosslinking monomer, wherein the (meth)acrylic acid ester monomer comprises alkyl (meth)acrylate having a C1 to C12 alkyl group, wherein the waterborne adhesive resin has a weight average molecular weight of 50,000 to 700,000, wherein the waterborne adhesive resin has a glass transition temperature of -60 to -10 °C, and wherein the waterborne adhesive resin is a resin particle having a particle diameter of 100nm to 500nm, wherein the water-based adhesive composition has an aging rate of 10 % or less, measured by Equation 1: Aging rate % = b − c / b × 100, where b is initial peel strength of an adhesive prepared from the water-based adhesive composition, and c is peel strength of the adhesive after being left at 70°C for 72 hours.
An automated method for stacking and loading facemasks (101, 134) into a carton in a facemask production line, comprising: conveying individual facemasks (101, 134) by a rotary vacuum conveyor in a continuous stream to a stacking location; at the stacking location, releasing the facemasks (101, 134) from the vacuum conveyor into a vertical accumulator such that the facemasks (101, 134) are stacked in the accumulator; upon reaching a predetermined fill level of facemasks (101, 134) in the accumulator, opening a bottom retainer in the accumulator such that the stacked facemasks (101, 134) drop into a carton placed below the accumulator; upon opening the bottom retainer, actuating a mid-level retainer in the accumulator that captures facemasks (101, 134) that continue to be deposited into the accumulator at an intermediate height above the bottom retainer; and closing the bottom retainer after the stacked facemasks (101, 134) drop into the carton, and then opening the mid-level retainer such that the facemasks (101, 134) captured by the mid-level retainer drop onto the bottom retainer. conveying individual facemasks (101, 134) by a rotary vacuum conveyor in a continuous stream to a stacking location; at the stacking location, releasing the facemasks (101, 134) from the vacuum conveyor into a vertical accumulator such that the facemasks (101, 134) are stacked in the accumulator; upon reaching a predetermined fill level of facemasks (101, 134) in the accumulator, opening a bottom retainer in the accumulator such that the stacked facemasks (101, 134) drop into a carton placed below the accumulator; upon opening the bottom retainer, actuating a mid-level retainer in the accumulator that captures facemasks (101, 134) that continue to be deposited into the accumulator at an intermediate height above the bottom retainer; and closing the bottom retainer after the stacked facemasks (101, 134) drop into the carton, and then opening the mid-level retainer such that the facemasks (101, 134) captured by the mid-level retainer drop onto the bottom retainer.
A technical stage device, comprising a fastening element, a bearing element and a functional element, in particular a camera or a spotlight, wherein the functional element is arranged on the bearing element so as to be pivotable about a tilt axis and wherein the bearing element is arranged on the fastening element so as to be rotatable about a pan axis, wherein a position determination arrangement is provided, which is designed in such a way that a relative movement between the bearing element and the fastening element as well as between the bearing element and the functional element can be determined, characterised in that the position determination arrangement comprises at least two signal transmitting elements, at least two signal reflecting elements, and at least two signal receiving elements, wherein a first signal reflecting element is arranged on the fastening element and a second signal reflecting element is arranged on the functional element.
An on-demand control system for an automated vehicle, the system comprising an on-demand driving pedal and a control unit for controlling the on-demand driving pedal, the on-demand driving pedal comprising an actuator comprising an electro-active polymer and a stretch sensor, the control unit being configured to shape the on-demand driving pedal, the control unit being configured to collect information from the stretch sensor to send driving commands to the vehicle allowing driving control of the vehicle by a user through interaction of the user with the on-demand driving pedal and to retract the on-demand driving pedal.
Compound V for complexing metallic isotopes, comprising a chelator X and one or more targeting vectors conjugated with the chelator X, said targeting vectors having the structure -L 1 -R 1 -L 2 -R 2 -L 3 -R 3, wherein L 1 is selected from the group comprising amide, phosphinate, alkyl, triazole, thiourea, ethylene, maleimide, -(CH 2) k - and -(CH 2 CH 2 O) k -, with k = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, L 2 is selected from -(CH 2) m - and -(CH 2 CH 2 O) m -, with m = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, and L 3 is selected from -(CH 2) n - and -(CH 2 CH 2 O) n -, with n = 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10, characterized in that R 2 is selected from the group comprising a substituent group of a: pyrrole, pyridine, pyrimidine, furan, azole, triazole, tetrazole, pyrazole, imidazole, oxazole, oxadiazole, thiophen, thiazole, thiadiazole, azine, oxazine, thiazine, naphthalene, quinoline, chromene, or thiochromene; and
Vehicle with at least one sliding door which is arranged behind a body pillar in the direction of travel, a frame running around the door opening which can be closed by the sliding door, a rail system which is provided in the region of the sliding door, is connected fixedly to the vehicle and consists of an upper and a lower guide rail, sliding carriages which are provided on the sliding door, are connected to the sliding door via a respective supporting arm and are guided displaceably on the guide rails, and side impact protection in the region of the sliding door, characterized in that an abutment which is fixedly connected to the vehicle wall is provided approximately level with at least one sliding carriage as the side impact protection, characterized in that at least one of the sliding carriages or supporting arms is provided with a stop, characterized in that the abutment is designed as a pin and in that, in the event of a side impact, in which the outer vehicle wall is deformed in the direction of the vehicle interior, the pin which is connected to the vehicle wall comes to bear against the stop of the sliding carriage or of the supporting arm, as a result of which the sliding carriage is secured on the guide rail and the position of the sliding door is simultaneously blocked.
A biaxial joint for a joint orthosis, comprising: hinge rails (110, 120) each having toothed joint heads (112, 122), the joint heads being guided in a joint housing between outer and inner housing plates (240, 250) and being rotatable mounted in joint axes (210, 220) within the joint housing, the hinge rails (110, 120) being rotatable together about the joint axes (210, 220) with their toothed joint heads (112, 122) intermeshing with each other, characterized in that at least one of the housing plates (240, 250) comprises at least one opening (242, 252) for the respective insertion of a limiting wedge in axial direction, wherein the limiting wedge in the inserted state can engage at a determined rotation angle with corresponding shoulders (114, 124) on the joint heads (112, 122) of the hinge rails (110; 120) to limit rotation of the hinge rails in at least one pivoting direction. hinge rails (110, 120) each having toothed joint heads (112, 122), the joint heads being guided in a joint housing between outer and inner housing plates (240, 250) and being rotatable mounted in joint axes (210, 220) within the joint housing, the hinge rails (110, 120) being rotatable together about the joint axes (210, 220) with their toothed joint heads (112, 122) intermeshing with each other, characterized in that at least one of the housing plates (240, 250) comprises at least one opening (242, 252) for the respective insertion of a limiting wedge in axial direction, wherein the limiting wedge in the inserted state can engage at a determined rotation angle with corresponding shoulders (114, 124) on the joint heads (112, 122) of the hinge rails (110; 120) to limit rotation of the hinge rails in at least one pivoting direction.
A system for controlling a reactor, comprising: a polymerization reactor, comprising: a gas chromatograph; a temperature measurement system; and a control system, comprising: a processor; and a storage system, wherein the storage system comprises machine readable instructions configured to direct the processor to: measure a temperature of the polymerization reactor using the temperature measurement system, characterised in that the machine readable instructions are further configured to direct the processor to: measure a concentration of an induced condensing agent and another condensable fluid in the polymerization reactor using the gas chromatograph; calculate an equivalent partial pressure ((P ICA) equiv) of the ICA in the reactor from the concentration of the ICA and the other condensable fluid in the polymerization reactor; locate the reactor operation in a two dimensional space defined by a reactor temperature dimension and an equivalent partial pressure ((P ICA) equiv) dimension; and compare the location of the reactor operation in the two dimensional space to a non-sticking regime defined as a space within the two dimensional space between an upper temperature limit curve and a lower temperature limit curve. a gas chromatograph; a temperature measurement system; and a control system, comprising: a processor; and a storage system, wherein the storage system comprises machine readable instructions configured to direct the processor to: measure a temperature of the polymerization reactor using the temperature measurement system, a processor; and a storage system, wherein the storage system comprises machine readable instructions configured to direct the processor to: measure a temperature of the polymerization reactor using the temperature measurement system, measure a concentration of an induced condensing agent and another condensable fluid in the polymerization reactor using the gas chromatograph; calculate an equivalent partial pressure ((P ICA) equiv) of the ICA in the reactor from the concentration of the ICA and the other condensable fluid in the polymerization reactor; locate the reactor operation in a two dimensional space defined by a reactor temperature dimension and an equivalent partial pressure ((P ICA) equiv) dimension; and compare the location of the reactor operation in the two dimensional space to a non-sticking regime defined as a space within the two dimensional space between an upper temperature limit curve and a lower temperature limit curve.
A system for disinfecting a medical device, the system comprising: a liquid light guide including an elongated tube defining a lumen, wherein the elongated tube has a distal end portion defining a distal opening of the lumen, and wherein at least the distal end portion is configured to be slidably positioned within a lumen of the medical device; a fluid reservoir fluidly coupled to the elongated tube and configured to deliver a fluid at least partially through the lumen of the elongated tube to the distal opening; and a UV light source optically coupled to the lumen of the elongated tube, wherein the elongated tube has a refractive index that is less than a refractive index of the fluid such that light from the light source propagates distally through the lumen of the elongated tube toward the distal opening. a liquid light guide including an elongated tube defining a lumen, wherein the elongated tube has a distal end portion defining a distal opening of the lumen, and wherein at least the distal end portion is configured to be slidably positioned within a lumen of the medical device; a fluid reservoir fluidly coupled to the elongated tube and configured to deliver a fluid at least partially through the lumen of the elongated tube to the distal opening; and a UV light source optically coupled to the lumen of the elongated tube, wherein the elongated tube has a refractive index that is less than a refractive index of the fluid such that light from the light source propagates distally through the lumen of the elongated tube toward the distal opening.
A communication method based on unlicensed spectrum carried out by an access network device, wherein the method comprises: acquiring a channel state detection result of the unlicensed spectrum, wherein the channel state detection result comprises whether subbands or bandwidth parts in the unlicensed spectrum are busy, and each bandwidth part comprises one or more subbands; and sending downlink control information through a connection on a licensed spectrum, wherein the downlink control information indicates at least one subband in the channel state detection result is busy or not, or indicates at least one bandwidth part in the channel state detection result is busy or not. acquiring a channel state detection result of the unlicensed spectrum, wherein the channel state detection result comprises whether subbands or bandwidth parts in the unlicensed spectrum are busy, and each bandwidth part comprises one or more subbands; and sending downlink control information through a connection on a licensed spectrum, wherein the downlink control information indicates at least one subband in the channel state detection result is busy or not, or indicates at least one bandwidth part in the channel state detection result is busy or not.
A device for separating magnetically labeled moieties in a sample, the device comprising: a first magnetic field source; a first magnetic field guide having a wedge-shaped portion with a single apex edge; a second magnetic field guide having a wedge-shaped portion with a single apex edge; and a conduit comprising a linear flow channel having a longitudinal axis that is parallel to a longitudinal axis of the first magnetic field guide and a longitudinal axis of the second magnetic field guide, wherein one or more of the first and second magnetic field guides is configured to increase a magnetic flux from the magnetic field source, the apex edges of the first and second magnetic field guides are aligned substantially across from and parallel to each other, and the device is configured to separate magnetically labeled moieties from non-magnetically labeled moieties in the sample characterised in that the wedge-shaped portion of the first magnetic guide has a single apex edge in the direction perpendicular to the longitudinal axis of the first magnetic field guide and that the wedge-shaped portion of the second magnetic guide has a single apex edge in the direction perpendicular to the longitudinal axis of the second magnetic field guide. a first magnetic field source; a first magnetic field guide having a wedge-shaped portion with a single apex edge; a second magnetic field guide having a wedge-shaped portion with a single apex edge; and a conduit comprising a linear flow channel having a longitudinal axis that is parallel to a longitudinal axis of the first magnetic field guide and a longitudinal axis of the second magnetic field guide, wherein one or more of the first and second magnetic field guides is configured to increase a magnetic flux from the magnetic field source, the apex edges of the first and second magnetic field guides are aligned substantially across from and parallel to each other, and the device is configured to separate magnetically labeled moieties from non-magnetically labeled moieties in the sample characterised in that the wedge-shaped portion of the first magnetic guide has a single apex edge in the direction perpendicular to the longitudinal axis of the first magnetic field guide and that the wedge-shaped portion of the second magnetic guide has a single apex edge in the direction perpendicular to the longitudinal axis of the second magnetic field guide.