mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic control component bracket for assembling an electronic control component to a vehicle body side, the electronic control component bracket comprising: a bottom portion that is to be disposed on a lower surface side of the electronic control component , and on which a plurality of elastic pieces configured to press the lower surface upward are provided; and abutting stop portions configured to abut, from above, against the electronic control component that is pressed upward, characterized in that the plurality of elastic pieces are configured so that when vibration is applied in an assembled state in which the electronic control component is clamped between the elastic pieces and the abutting stop portions , one or both of an amplitude and a vibration period, in a vertical direction, of one elastic piece (3A1) are set to be different from those of at least another elastic piece (3A2). a bottom portion that is to be disposed on a lower surface side of the electronic control component , and on which a plurality of elastic pieces configured to press the lower surface upward are provided; and abutting stop portions configured to abut, from above, against the electronic control component that is pressed upward, characterized in that the plurality of elastic pieces are configured so that when vibration is applied in an assembled state in which the electronic control component is clamped between the elastic pieces and the abutting stop portions , one or both of an amplitude and a vibration period, in a vertical direction, of one elastic piece (3A1) are set to be different from those of at least another elastic piece (3A2).
Assembling machine by gluing layers of a model for molding process by lost model, said machine comprising : - a first support of a first layer of said model , said gripping shaper, and - a second support of a second layer of said model , said depositing shaper, mounted on a frame , - said gripping shaper being movable relative to said depositing shaper , in a bonding direction, for bonding said first and second layers along a bonding joint , characterized in what said assembly machine further comprises : - at least one guide system for movement of said depositing shaper relative to said frame in the gluing direction so as to accompany a descent of said gripping shaper , and - an elastic member capable of applying during its compression a contact pressure along said bonding joint when bringing said first layer into contact with said second layer . - a first support of a first layer of said model , said gripping shaper, and - a second support of a second layer of said model , said depositing shaper, mounted on a frame , - said gripping shaper being movable relative to said depositing shaper , in a bonding direction, for bonding said first and second layers along a bonding joint , characterized in what said assembly machine further comprises : - at least one guide system for movement of said depositing shaper relative to said frame in the gluing direction so as to accompany a descent of said gripping shaper , and - an elastic member capable of applying during its compression a contact pressure along said bonding joint when bringing said first layer into contact with said second layer . - at least one guide system for movement of said depositing shaper relative to said frame in the gluing direction so as to accompany a descent of said gripping shaper , and - an elastic member capable of applying during its compression a contact pressure along said bonding joint when bringing said first layer into contact with said second layer .
A polypeptide having at least 80 % sequence identity to the amino acid sequence of any one of SEQ ID NOs: 1-15 and 23-30, wherein the polypeptide has a triple-helical structure and comprises: a) an acidic amino acid selected from aspartic acid (D) and glutamic acid (E) at the position corresponding to position 13 of SEQ ID NO: 1, and b) a basic amino acid selected from any one of arginine (R), lysine (K), and histidine (H) at the position corresponding to position 31 of SEQ ID NO: 1, wherein the polypeptide has no detectable binding affinity for the Fc domain of immunoglobulin as determined by Surface Plasmon Resonance (SPR). a) an acidic amino acid selected from aspartic acid (D) and glutamic acid (E) at the position corresponding to position 13 of SEQ ID NO: 1, and b) a basic amino acid selected from any one of arginine (R), lysine (K), and histidine (H) at the position corresponding to position 31 of SEQ ID NO: 1,
A display panel , comprising: a third conductive layer including a third layer , a fourth layer , and a fifth layer that are sequentially stacked; and a fourth conductive layer disposed on the third conductive layer and in contact with the fifth layer the third layer includes a first metal characterized in that the fourth layer includes the first metal and oxygen in a first composition ratio, the fifth layer includes the first metal and oxygen in a second composition ratio, the first composition ratio and the second composition ratio being different from each other, and conductivity of the fifth layer being higher than conductivity of the fourth layer . a third conductive layer including a third layer , a fourth layer , and a fifth layer that are sequentially stacked; and a fourth conductive layer disposed on the third conductive layer and in contact with the fifth layer the third layer includes a first metal characterized in that the fourth layer includes the first metal and oxygen in a first composition ratio, the fifth layer includes the first metal and oxygen in a second composition ratio, the first composition ratio and the second composition ratio being different from each other, and conductivity of the fifth layer being higher than conductivity of the fourth layer .
A compressor comprising: a casing having a discharge portion at one side, through which a refrigerant is discharged; a driving motor coupled to the case ; a rotary shaft rotatably coupled to the driving motor ; a main frame coupled to an inner circumferential surface of the case and provided to be passed by the rotary shaft ; a fixed scroll including a fixed end plate portion coupled to the casing , a fixed wrap protruded from the fixed end plate portion , and a discharge hole passing through the fixed end plate portion to allow the refrigerant to be discharged; and an orbiting scroll including an orbiting end plate portion received in the main frame and an orbiting wrap protruded to be engaged with the fixed wrap in the orbiting end plate portion , characterized in that the fixed end plate portion of the fixed scroll is provided to be passed by the rotary shaft , and wherein the discharge hole is spaced apart from the rotary shaft ; the orbiting scroll is coupled to the rotary shaft to allow the rotary shaft to pass therethrough; the orbiting wrap includes a center portion configured to open or close at least a portion of the discharge hole when the orbiting end plate portion performs an orbiting movement by means of the rotary shaft , and an auxiliary discharge path formed in the center portion of the orbiting wrap to guide the refrigerant to the discharge hole . a casing having a discharge portion at one side, through which a refrigerant is discharged; a driving motor coupled to the case ; a rotary shaft rotatably coupled to the driving motor ; a main frame coupled to an inner circumferential surface of the case and provided to be passed by the rotary shaft ; a fixed scroll including a fixed end plate portion coupled to the casing , a fixed wrap protruded from the fixed end plate portion , and a discharge hole passing through the fixed end plate portion to allow the refrigerant to be discharged; and an orbiting scroll including an orbiting end plate portion received in the main frame and an orbiting wrap protruded to be engaged with the fixed wrap in the orbiting end plate portion , characterized in that the fixed end plate portion of the fixed scroll is provided to be passed by the rotary shaft , and wherein the discharge hole is spaced apart from the rotary shaft ; the orbiting scroll is coupled to the rotary shaft to allow the rotary shaft to pass therethrough; the orbiting wrap includes a center portion configured to open or close at least a portion of the discharge hole when the orbiting end plate portion performs an orbiting movement by means of the rotary shaft , and an auxiliary discharge path formed in the center portion of the orbiting wrap to guide the refrigerant to the discharge hole .
A temperature-measuring scan head comprising an enclosure , the enclosure includes two supplementary lamps , an image sensor and a temperature sensor at its end face, wherein the image sensor and the temperature sensor are arranged in order between the two supplementary lamps , wherein terminals of both image sensor and temperature sensor are electrically connected to a central processing unit via wires, wherein the two supplementary lamps , the image sensor and the temperature sensor are electrically provided with a control switch, and wherein the two supplementary lamps , the image sensor and the temperature sensor are all controlled by the control switch on which there are three groups of buttons that control the working status of the two supplementary lamps , the image sensor and the temperature sensor , respectively.
Unit for separating and/or liquefying a gas, comprising at least one chamber (E), optionally insulated, of slender shape, disposed on foundations and anchored to the ground by means of guy wires, characterized in that the chamber is disposed on a first concrete block and the chamber is anchored to the ground by means of at least three guy wires , each connected to a separate second concrete block , the second concrete blocks connected to the guy wires being disposed on the ground at the corners of a polygon, the first and the second blocks having a depth below the reference level of the ground that does not exceed 1 m, preferably 0.7 m, typically 0.5 m.
A locking structure for terminals including a connector housing in which a plurality of terminal housing chambers accommodating the terminals connected to wires are formed, and lances extending from rear end parts of the terminal housing chambers toward front sides thereof to lock the terminals , wherein sidewalls forming the terminal housing chambers are disposed to face each other with a space (S) between the sidewalls of adjacent terminal housing chambers , wherein the two sidewalls disposed to face each other include arms that extend like a cantilever toward a rear side with a front end as a fixed end and that are elastically deformable in a direction in which the sidewalls rise as parts of the sidewalls , characterized in that the arms are connected by a connecting part and the connecting part is movable integrally with the arms in the direction in which the sidewalls rise, and wherein the lances are supported by the arms that are parts of the sidewalls of the terminal housing chambers in which the lances are provided.
A component housing unit for a vehicle thermal management system (S), wherein the component housing unit is configured for being attached to an exterior surface of an expansion tank having an interior surface defining an interior volume , wherein the component housing unit is configured for being connected to a first thermal control loop and a second thermal control loop , and wherein the component housing unit is configured for connecting the interior volume of the expansion tank to the first thermal control loop and the second thermal control loop respectively, wherein the component housing unit comprises a first component interface configured for direct attachment of a first system component connected to the first thermal control loop , and a second component interface configured for direct attachment of a second system component connected to the second thermal control loop , characterized in that the component housing unit comprises a valve unit , wherein when the valve unit is in a first position the thermal control loops are arranged in a parallel relationship and when the valve unit is in a second position the thermal control loops are arranged in series. wherein the component housing unit is configured for being connected to a first thermal control loop and a second thermal control loop , and wherein the component housing unit is configured for connecting the interior volume of the expansion tank to the first thermal control loop and the second thermal control loop respectively, wherein the component housing unit comprises a first component interface configured for direct attachment of a first system component connected to the first thermal control loop , and a second component interface configured for direct attachment of a second system component connected to the second thermal control loop , characterized in that the component housing unit comprises a valve unit , wherein when the valve unit is in a first position the thermal control loops are arranged in a parallel relationship and when the valve unit is in a second position the thermal control loops are arranged in series.
A method in a movable device for locating the movable device within an environment, wherein the movable device is configured for wireless communication, said method comprising: receiving , from an external unit , a centrally determined environment model , said model defining at least actual and/or estimated locations of wireless transmission sources ; determining distance-dependent measurements for one or more positions of the movable device , wherein each of said distance-dependent measurements provides information relating to a distance between the movable device and a wireless transmission source ; and determining a location of the movable device based on the received centrally determined environment model and the determined distance-dependent measurements for one or more positions of the movable device , said determining comprising: forming a locally determined environment model, said model being updated in relation to the centrally determined environment model and defining at least estimated locations of the wireless transmission sources and estimated locations of the one or more positions of the movable device , wherein a calculated error of the centrally determined environment model in relation to the determined distance-dependent measurements for the one or more positions of the movable device is reduced for forming the updated locally determined environment model. receiving , from an external unit , a centrally determined environment model , said model defining at least actual and/or estimated locations of wireless transmission sources ; determining distance-dependent measurements for one or more positions of the movable device , wherein each of said distance-dependent measurements provides information relating to a distance between the movable device and a wireless transmission source ; and determining a location of the movable device based on the received centrally determined environment model and the determined distance-dependent measurements for one or more positions of the movable device , said determining comprising: forming a locally determined environment model, said model being updated in relation to the centrally determined environment model and defining at least estimated locations of the wireless transmission sources and estimated locations of the one or more positions of the movable device , wherein a calculated error of the centrally determined environment model in relation to the determined distance-dependent measurements for the one or more positions of the movable device is reduced for forming the updated locally determined environment model.
Process of producing a multilayer arrangement , at least comprising the steps of: - providing a donor substrate in order to separate off a solid-state layer , especially a wafer; - generating modifications , especially by means of LASER beams , in the donor substrate to define a crack progression; - providing a carrier substrate in order to accommodate the solid-state layer ; - bonding the carrier substrate by means of a bonding layer to the donor substrate , wherein the carrier substrate is provided in order to increase the mechanical strength of the solid-state layer to be separated off for further processing, - disposing or generating a stress generation layer on the carrier substrate ; - subjecting the stress generation layer to thermal stress in order to generate stresses in the donor substrate , wherein the generation of stress triggers a crack that propagates along the defined crack progression in order to separate the solid-state layer from the donor substrate , such that the solid-state layer separates off with the bonded carrier substrate . - providing a donor substrate in order to separate off a solid-state layer , especially a wafer; - generating modifications , especially by means of LASER beams , in the donor substrate to define a crack progression; - providing a carrier substrate in order to accommodate the solid-state layer ; - bonding the carrier substrate by means of a bonding layer to the donor substrate , wherein the carrier substrate is provided in order to increase the mechanical strength of the solid-state layer to be separated off for further processing, - disposing or generating a stress generation layer on the carrier substrate ; - subjecting the stress generation layer to thermal stress in order to generate stresses in the donor substrate , wherein the generation of stress triggers a crack that propagates along the defined crack progression in order to separate the solid-state layer from the donor substrate , such that the solid-state layer separates off with the bonded carrier substrate .
Adjustment device for an adjustable illuminating system, having at least one pixel headlamp, of a motor vehicle, wherein the illuminating system has an illuminable region which is predetermined by characteristics of the illuminating system, which region is specified by legal regulations and standards, wherein the adjustment device has a control unit which can be coupled with the illuminating system for controlling the illuminating system and a touch sensitive area input unit attached to the control unit for capturing a manual input of a user , wherein the control unit is designed to vary individually the light distribution within the determined illuminable region, to assign a captured manual input of the user to a predetermined light distribution represented by a dataset serving to adjust the illuminating system, and to provide a control signal, corresponding to the light distribution, for the illuminating system, wherein the touch sensitive area input unit includes a graphical output unit and the control unit is designed to display on the graphical output unit in a manner able to be selected by the user a symbol assigned to the predetermined light distribution which represents a light distribution portion within the light distribution or a selection field , wherein the control unit is designed to alter the predetermined light distribution by displacing the symbol in order to alter and/or to activate or to deactivate the light distribution with regard to a light focus , an aperture angle, a darkening or a brightening.
A battery pack for an electric tool , the battery pack comprising - at least one battery cell and a monitoring circuit , which is configured to determine an electrical or thermal measured variable of the battery pack ; - a control unit , which is configured - to determine a power drain characteristic of the battery pack depending on a first and/or second time derivative of the electrical or thermal measured variable; - to predict a future power drain characteristic of the battery pack depending on the determined power drain characteristic; - to examine at least one predefined acceptance condition depending on the predicted power drain characteristic; and - to initiate a measure for user information depending on a result of the examination. - at least one battery cell and a monitoring circuit , which is configured to determine an electrical or thermal measured variable of the battery pack ; - a control unit , which is configured - to determine a power drain characteristic of the battery pack depending on a first and/or second time derivative of the electrical or thermal measured variable; - to predict a future power drain characteristic of the battery pack depending on the determined power drain characteristic; - to examine at least one predefined acceptance condition depending on the predicted power drain characteristic; and - to initiate a measure for user information depending on a result of the examination.
Foam-film laminate in the region of airbag coverings of an interior trim part for motor vehicles, comprising a compact cover layer having a three-dimensionally structured or smooth surface on the upper side and a foam layer on the lower side of the cover layer, wherein the cover layer has an outer layer and an inner layer which both consist of thermoplastic material with a density in each case of at least 800 kg/m 3 , wherein the outer layer has a thickness in the range of from 0.05 to 0.3 mm, the inner layer has a thickness in the range of from 0.2 to 0.6 mm and is bonded to the foam layer , and the foam layer has a thickness in the range of from 0.5 to 2 mm and a density of between 350 kg/m 3 and 700 kg/m 3 , wherein, under the conditions of firing of an airbag, the elongation at break of the inner layer and also of the foam layer is lower than the elongation at break of the outer layer , wherein the airbag-relevant conditions are defined as a temperature range of between -35 and +85°C and the occurrence of high elongation rates caused by the opening speeds of an airbag of up to 90 m/s.
Security method for the verification of an Information Retrieval Request which requests a transmission of data from a Location Register Server (LR) to a Sending Entity in a Mobile Communication Network , comprising the following steps: - Receive an Information Retrieval Request from the Sending Entity by a Receiving Module of a Security Device , wherein the Sending Entity is a Home Location Register Server (HLR, fHLR), - Extract at least one Specification Code for specifying the Sending Entity and/or a Mobile Subscriber (MS) out of the Information Retrieval Request , - Compare the extracted at least one Specification Code to a Verification List , - Based on the result of the comparison with the Verification List , allow or prohibit the transmission of data requested in the Information Retrieval Request . - Receive an Information Retrieval Request from the Sending Entity by a Receiving Module of a Security Device , wherein the Sending Entity is a Home Location Register Server (HLR, fHLR), - Extract at least one Specification Code for specifying the Sending Entity and/or a Mobile Subscriber (MS) out of the Information Retrieval Request , - Compare the extracted at least one Specification Code to a Verification List , - Based on the result of the comparison with the Verification List , allow or prohibit the transmission of data requested in the Information Retrieval Request .