mhurhangee/patent-ind-claim-en huggingface dataset:
An electric parking brake for a utility vehicle, comprising: - a feed line for brake-pressure air; - a discharge line for brake-pressure air for a pneumatic brake device; - a first valve and a second valve that can each be switched between a stable state and an activated state in response to electrical control signals; and - a valve device that is connected between the feed line and the discharge line and has a control input , the valve device being designed to switch between a stable state and an activated state in response to control signals at the control input , the feed line being connected to the discharge line in the activated state, characterised in that the first valve connects the control input of the valve device to the discharge line in the stable state in order to maintain the prevailing state of the valve device when the brake-pressure air is applied to the discharge line , and connects the control input to the second valve in the activated state. - a feed line for brake-pressure air; - a discharge line for brake-pressure air for a pneumatic brake device; - a first valve and a second valve that can each be switched between a stable state and an activated state in response to electrical control signals; and - a valve device that is connected between the feed line and the discharge line and has a control input , the valve device being designed to switch between a stable state and an activated state in response to control signals at the control input , the feed line being connected to the discharge line in the activated state,
A fan assembly comprising a fan assembly hub having opposing portions , each opposing portion being provided with at least one locating region, and at least one fan blade , the or each fan blade having an attachment portion having at least one projection to each side, the or each fan blade being secured between the opposing portions of the fan assembly hub, the fan assembly characterised in that the assembly further comprises a plurality of tapered angle adjusters , each tapered angle adjuster comprising first and second major surfaces , the first major surface being disposed at an angle to the second major surface , the first major surface being provided with a projection and the second major surface being provided with a recess , at least one of the tapered angle adjusters being located to each side of the attachment portion of the fan blade between the attachment portion of the fan blade and the adjacent fan assembly hub portion.
A pre-treatment process for preparing a biomass material for conversion to a bio-oil, said pre-treatment process comprising the steps of (i) swelling the biomass material with an aqueous liquid, optionally aided by pH control, application of mechanical action, the incorporation of additive(s) and temperature control, wherein the biomass material comprises extractables; (ii) removing water containing the dissolved extractables from the swollen biomass material by applying mechanical action to the swollen biomass material; and (iii) adding an inorganic catalytic material, wherein the catalytic material comprises an insoluble inorganic material in a colloidal form, and wherein the insoluble inorganic material is selected from the group of refractory oxides, zeolites, cationic clays, anionic clays, layered hydroxide materials, hydrotalcites, and mixtures thereof. (i) swelling the biomass material with an aqueous liquid, optionally aided by pH control, application of mechanical action, the incorporation of additive(s) and temperature control, wherein the biomass material comprises extractables; (ii) removing water containing the dissolved extractables from the swollen biomass material by applying mechanical action to the swollen biomass material; and (iii) adding an inorganic catalytic material,
An absorbent article comprising: a. a first outermost layer for contact with a wearer' s skin or a caregiver' s skin, the first outermost layer comprising a first nonwoven comprising plant-based fibers comprising harvested fibers other than wood pulp, wherein the harvested fibers optionally comprise a post-harvest treatment; and b. an opposing second outermost layer for contact with the wearer's skin or the caregiver's skin, the second outermost layer comprising a second nonwoven comprising plant-based fibers comprising synthetic fibers; c. wherein the first nonwoven's bio-based content is from 5% to 100% using ASTM D6866-10, method B; and d. wherein the second nonwoven's bio-based content is from 5% to 100% using ASTM D6866-10, method B wherein the bio-based content is the amount of carbon from a renewable resource in the nonwoven as a percent of the mass of the total organic carbon in the nonwoven, as determined by ASTM D6866-10, method B. a. a first outermost layer for contact with a wearer' s skin or a caregiver' s skin, the first outermost layer comprising a first nonwoven comprising plant-based fibers comprising harvested fibers other than wood pulp, wherein the harvested fibers optionally comprise a post-harvest treatment; and b. an opposing second outermost layer for contact with the wearer's skin or the caregiver's skin, the second outermost layer comprising a second nonwoven comprising plant-based fibers comprising synthetic fibers; c. wherein the first nonwoven's bio-based content is from 5% to 100% using ASTM D6866-10, method B; and d. wherein the second nonwoven's bio-based content is from 5% to 100% using ASTM D6866-10, method B
Sensor arrangement for an autonomously operated commercial vehicle in order to allow panoramic capture of surroundings, wherein the commercial vehicle comprises a traction engine and a trailer and the sensor arrangement comprises: - downwardly directed cameras having a fisheye objective, which are placeable along a perimeter of the commercial vehicle ; and - an evaluation module designed to evaluate image data from the downwardly directed cameras after the downwardly directed cameras have been mounted on the commercial vehicle in order to achieve the panoramic capture of the surroundings of the commercial vehicle , wherein the downwardly directed cameras are designed to capture each point in a surrounding area of the commercial vehicle by means of two different cameras , wherein the surrounding area is a self-contained area around the vehicle, wherein the downwardly directed cameras comprise first lateral cameras , second lateral cameras , third lateral cameras and fourth lateral cameras , characterized in that the first lateral cameras are mountable on front corner areas of the traction engine , the second lateral cameras are mountable on rear corner areas of the traction engine , the third lateral cameras are mountable on rear corner areas of the trailer and the fourth lateral cameras are mountable along a respective side of the trailer , and wherein the multiplicity of cameras is divided into a first and a second set of cameras, with the first set producing a first panoramic image and the second set producing a second panoramic image and the first and second panoramic images therefore showing the points from the surroundings from two different perspectives. - downwardly directed cameras having a fisheye objective, which are placeable along a perimeter of the commercial vehicle ; and - an evaluation module designed to evaluate image data from the downwardly directed cameras after the downwardly directed cameras have been mounted on the commercial vehicle in order to achieve the panoramic capture of the surroundings of the commercial vehicle , wherein the downwardly directed cameras are designed to capture each point in a surrounding area of the commercial vehicle by means of two different cameras , wherein the surrounding area is a self-contained area around the vehicle, wherein the downwardly directed cameras comprise first lateral cameras , second lateral cameras , third lateral cameras and fourth lateral cameras ,
A vehicular hydraulic braking pump (20; 120; 220) comprising: a sleeve (28; 128; 228) having an inner bore (28a; 128a) defining an inner bore surface; a piston (26; 126; 226) having a stop collar (26b; 126b) and a ramped seal face (80; 180; 280), the stop collar (26b; 126b), ramped seal face (80; 180; 280), and the inner bore (28a; 128a) cooperating to define a seal pocket (78; 178; 278); and a high pressure seal (62; 162; 262) disposed in the seal pocket (78; 178; 278), characterized in that the ramped seal face (80; 180; 280) includes a first region (86; 186; 286) that contacts the high pressure seal (62; 162; 262) and a second region (88; 188; 288) that defines a clearance between the high pressure seal (62; 162; 262) and the ramped seal face (80; 180; 280). a sleeve (28; 128; 228) having an inner bore (28a; 128a) defining an inner bore surface; a piston (26; 126; 226) having a stop collar (26b; 126b) and a ramped seal face (80; 180; 280), the stop collar (26b; 126b), ramped seal face (80; 180; 280), and the inner bore (28a; 128a) cooperating to define a seal pocket (78; 178; 278); and a high pressure seal (62; 162; 262) disposed in the seal pocket (78; 178; 278), characterized in that the ramped seal face (80; 180; 280) includes a first region (86; 186; 286) that contacts the high pressure seal (62; 162; 262) and a second region (88; 188; 288) that defines a clearance between the high pressure seal (62; 162; 262) and the ramped seal face (80; 180; 280).
An adapter for making a fluid connection between first and second medical fluid flow components in which the first medical fluid flow component includes a first male Luer or female Luer connector of a first configuration, and the second medical fluid flow component includes a second male Luer or female Luer connector of a second configuration that is not compatible with the first configuration, the adapter comprising: a. a fluid flow conduit including a first end and a second end and a fluid flow lumen extending between the first and second ends, and wherein on the surface of said fluid flow conduit one or more wings (128, 188,) are provided for receipt between a user's finger tips for gripping and turning; b. a first adapter connector positioned on the first end of said conduit, said first adapter connector being a male Luer or female Luer including a first set of threads and having a first configuration compatible with the first medical fluid flow component connector; and c. a second adapter connector positioned on the second end of said conduit, said second adapter connector being a male Luer or female Luer including a second set of threads and having a second configuration compatible with the second medical fluid flow component connector. a. a fluid flow conduit including a first end and a second end and a fluid flow lumen extending between the first and second ends, and wherein on the surface of said fluid flow conduit one or more wings (128, 188,) are provided for receipt between a user's finger tips for gripping and turning; b. a first adapter connector positioned on the first end of said conduit, said first adapter connector being a male Luer or female Luer including a first set of threads and having a first configuration compatible with the first medical fluid flow component connector; and c. a second adapter connector positioned on the second end of said conduit, said second adapter connector being a male Luer or female Luer including a second set of threads and having a second configuration compatible with the second medical fluid flow component connector.
An X-ray source comprising: a liquid target source configured to provide a liquid target formed of a freely propagating liquid jet moving along a flow axis; an electron source configured to provide an electron beam ; and a liquid target shaper configured to shape the liquid target to comprise a non-circular cross section with respect to the flow axis, wherein the non-circular cross section has a first width along a first axis and a second width along a second axis, wherein the first width is shorter than the second width, and wherein the liquid target comprises an impact portion being intersected by the first axis; wherein the X-ray source is configured to direct the electron beam towards the impact portion such that the electron beam interacts with the liquid target within the impact portion to generate X-ray radiation; characterized in that the X-ray source further comprises an arrangement configured to move a location, within the impact portion, in which the electron beam interacts with the liquid target. a liquid target source configured to provide a liquid target formed of a freely propagating liquid jet moving along a flow axis; an electron source configured to provide an electron beam ; and a liquid target shaper configured to shape the liquid target to comprise a non-circular cross section with respect to the flow axis, wherein the non-circular cross section has a first width along a first axis and a second width along a second axis, wherein the first width is shorter than the second width, and wherein the liquid target comprises an impact portion being intersected by the first axis; wherein the X-ray source is configured to direct the electron beam towards the impact portion such that the electron beam interacts with the liquid target within the impact portion to generate X-ray radiation; characterized in that the X-ray source further comprises an arrangement configured to move a location, within the impact portion, in which the electron beam interacts with the liquid target.
A millimeter-wave, mmWave, assembly comprising a first mmWave module , a second mmWave module , and a connector configured to releasably interconnect said first mmWave module and said second mmWave module , said first mmWave module comprising a first substrate and a mmWave radiofrequency integrated circuit, RFIC, , said second mmWave module comprising a second substrate and a mmWave antenna array , said connector being configured to transmit at least one signal between said mmWave RFIC and said mmWave antenna array when said first mmWave module and said second mmWave module are interconnected; characterised in that said connector comprising a first connector element connected to said first mmWave module , a second connector element connected to said second mmWave module and a third connector element , wherein at least one of said first connector element , said second connector element and said third connector element comprises a spring structure; said first connector element configured to releasably engage a first section of said third connector element and said second connector element configured to releasably engage a second section of said third connector element . said first mmWave module comprising a first substrate and a mmWave radiofrequency integrated circuit, RFIC, , said second mmWave module comprising a second substrate and a mmWave antenna array , said connector being configured to transmit at least one signal between said mmWave RFIC and said mmWave antenna array when said first mmWave module and said second mmWave module are interconnected; characterised in that said connector comprising a first connector element connected to said first mmWave module , a second connector element connected to said second mmWave module and a third connector element , wherein at least one of said first connector element , said second connector element and said third connector element comprises a spring structure; said first connector element configured to releasably engage a first section of said third connector element and said second connector element configured to releasably engage a second section of said third connector element .
An item (10; 11) having - a change-in-environment part (21-25) and - a barcode (12; 13) which contains data relating to the change-in-environment part (21-25), said change-in-environment part (21-25) being a part that changes in accordance with environmental conditions, characterised in that the barcode (12; 13) includes information about the position of the change-in-environment part (21-25). - a change-in-environment part (21-25) and - a barcode (12; 13) which contains data relating to the change-in-environment part (21-25),
A method of modulating epileptogenicity in a brain of an epileptic patient comprising the steps of: providing a virtual brain, said virtual brain being a computerized platform modelling various zones or nodes of a primate brain and connectivity between said zones or nodes; providing a model of an epileptogenic zone and a model of the propagation of an epileptic discharge from an epileptic zone to a propagation zone, the model of the epileptogenic zone being a mathematical model describing the onset, the time-course and the offset of the epileptic discharge, and loading said models in the virtual brain to create a virtual epileptic brain; acquiring data of the brain of the epileptic patient; identifying, in said data, a location of at least one possible epileptogenic zone; parametrizing said at least one possible epileptogenic zone in the virtual epileptic brain as an epileptogenic zone; characterized in that the method further comprises the steps of: fitting the virtual epileptic brain against the data acquired from the epileptic patient; and simulating, within the virtual epileptic brain, the effect of a network modulation mimicking a clinical intervention of the brain of the patient. providing a virtual brain, said virtual brain being a computerized platform modelling various zones or nodes of a primate brain and connectivity between said zones or nodes; providing a model of an epileptogenic zone and a model of the propagation of an epileptic discharge from an epileptic zone to a propagation zone, the model of the epileptogenic zone being a mathematical model describing the onset, the time-course and the offset of the epileptic discharge, and loading said models in the virtual brain to create a virtual epileptic brain; acquiring data of the brain of the epileptic patient; identifying, in said data, a location of at least one possible epileptogenic zone; parametrizing said at least one possible epileptogenic zone in the virtual epileptic brain as an epileptogenic zone; characterized in that the method further comprises the steps of: fitting the virtual epileptic brain against the data acquired from the epileptic patient; and simulating, within the virtual epileptic brain, the effect of a network modulation mimicking a clinical intervention of the brain of the patient. fitting the virtual epileptic brain against the data acquired from the epileptic patient; and simulating, within the virtual epileptic brain, the effect of a network modulation mimicking a clinical intervention of the brain of the patient.
A fluid ejection device comprising: nozzles to dispense fluid; power rails having a power supply rail and a reference rail ; nodes on the power rails ; a bypass capacitor ; a first path having a first resistance (R1), wherein the first path when activated connects the bypass capacitor between the power supply rail and the reference rail via nodes ; a second path having a second resistance (R2) lower than the first resistance (R1), wherein the second path when activated connects the bypass capacitor between the nodes , wherein the second path is in parallel with the first path; and a switch assembly that is activatable between a first state to connect the bypass capacitor between the nodes , and a second state to disconnect the bypass capacitor between the nodes , wherein the switch assembly is dynamically activatable during operation of the fluid ejection device , the switch assembly comprising: a first switch adapted to activate the first path to begin charging the bypass capacitor , and a second switch adapted to, a delayed time after the activating of the first path, activate the second path. nozzles to dispense fluid; power rails having a power supply rail and a reference rail ; nodes on the power rails ; a bypass capacitor ; a first path having a first resistance (R1), wherein the first path when activated connects the bypass capacitor between the power supply rail and the reference rail via nodes ; a second path having a second resistance (R2) lower than the first resistance (R1), wherein the second path when activated connects the bypass capacitor between the nodes , wherein the second path is in parallel with the first path; and a switch assembly that is activatable between a first state to connect the bypass capacitor between the nodes , and a second state to disconnect the bypass capacitor between the nodes , wherein the switch assembly is dynamically activatable during operation of the fluid ejection device , the switch assembly comprising: a first switch adapted to activate the first path to begin charging the bypass capacitor , and a second switch adapted to, a delayed time after the activating of the first path, activate the second path. a first switch adapted to activate the first path to begin charging the bypass capacitor , and a second switch adapted to, a delayed time after the activating of the first path, activate the second path.
A surge protection device , comprising: a negative potential or neutral input; a surge protection component having one or more surge elements; and a rectification circuit , characterized by a plurality of direct current, DC, power line inputs; a ground potential input; and in that the rectification circuit includes a plurality of diodes, wherein said rectification circuit is connected between said inputs and the surge protection component . a negative potential or neutral input; a surge protection component having one or more surge elements; and a rectification circuit , characterized by a plurality of direct current, DC, power line inputs; a ground potential input; and in that the rectification circuit includes a plurality of diodes, wherein said rectification circuit is connected between said inputs and the surge protection component .
An off-road speed control system for controlling the speed of a vehicle , the system being operable to automatically cause the vehicle to accelerate from a first speed to a second speed in accordance with a selected one of a plurality of predefined stored acceleration profiles , each said profile comprising stored data in the form of a value of one of vehicle speed and vehicle rate of acceleration, as a function of time, the profile being selected in dependence on a type of terrain over which the vehicle is operating.