mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a motor vehicle , in particular a passenger car, wherein the motor vehicle has a communication device for receiving traffic light information emitted by a traffic light and relating to the traffic light switching of the traffic light and a vehicle light arrangement having at least one vehicle light and being assigned to the rear or the front or the vehicle sides, wherein each vehicle light is used to implement an operational light function related to the operation of the motor vehicle , wherein at least one item of partial information of the traffic light information and/or derivation information derived from the traffic light information and independent of the motor vehicle is displayed to another road user by means of the vehicle light arrangement , characterized in that the display of the at least one item of partial information is only at least activated and/or deactivated together with a change with respect to at least one of the at least one operational light function, such that the ability to activate and/or deactivate the display is restricted to the presence of a change with respect to the operational light function.
A method of fabricating one or more gate field plates on a semiconductor device , comprising: depositing source and drain ohmic contacts and a gate contact on the intrinsic active region of the semiconductor device, the gate contact extending beyond the width of the intrinsic active region, in a direction perpendicular to a line connecting the source and drain contacts, into an extrinsic region of the device; depositing dielectric material on the extrinsic and intrinsic regions of the device and on the source, drain and gate contacts; patterning the dielectric material to remove the dielectric material from the extrinsic region of the device and from the source and drain contacts, the dielectric material remaining on the active region of the device and on the part of the gate contact disposed on the intrinsic active region; and creating a field plate on the patterned dielectric material wherein the gate contact and the field plate are electrically shorted in the extrinsic region of the device. depositing source and drain ohmic contacts and a gate contact on the intrinsic active region of the semiconductor device, the gate contact extending beyond the width of the intrinsic active region, in a direction perpendicular to a line connecting the source and drain contacts, into an extrinsic region of the device; depositing dielectric material on the extrinsic and intrinsic regions of the device and on the source, drain and gate contacts; patterning the dielectric material to remove the dielectric material from the extrinsic region of the device and from the source and drain contacts, the dielectric material remaining on the active region of the device and on the part of the gate contact disposed on the intrinsic active region; and creating a field plate on the patterned dielectric material wherein the gate contact and the field plate are electrically shorted in the extrinsic region of the device.
A medical device comprising at least, respectively: - a hard part with fluid paths for guiding a medical fluid, in particular blood, through the hard part ; - a transducer , the transducer being arranged to measure a property of the medical fluid when it is present in one of the fluid paths , and - a conductor path ; wherein at least a first section of the transducer or of the conductor path is applied to the hard part by means of a first additive application method; characterized in that at least a second section of the transducer or of the conductor path is applied to the hard part by means of a second additive application method; and wherein the first additive application method and the second additive application method differ from each other. - a hard part with fluid paths for guiding a medical fluid, in particular blood, through the hard part ; - a transducer , the transducer being arranged to measure a property of the medical fluid when it is present in one of the fluid paths , and - a conductor path ; wherein at least a first section of the transducer or of the conductor path is applied to the hard part by means of a first additive application method; characterized in that at least a second section of the transducer or of the conductor path is applied to the hard part by means of a second additive application method; and wherein the first additive application method and the second additive application method differ from each other.
A Serving GPRS Support Node (SGSN) configured to interact with a Base Station Subsystem (BSS) (602 2 ), the SGSN comprising: a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the SGSN is operable to: receive , from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit (PDU) comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance (MTA) Request message for a target wireless device (604 3 ), and (ii) an indicator that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer . a processor ; and, a memory that stores processor-executable instructions, wherein the processor interfaces with the memory to execute the processor-executable instructions, whereby the SGSN is operable to: receive , from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit (PDU) comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance (MTA) Request message for a target wireless device (604 3 ), and (ii) an indicator that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer . receive , from the BSS, a BSS General Packet Radio Service (GPRS) Protocol (BSSGP) POSITION-COMMAND Protocol Data Unit (PDU) comprising (i) a Radio Resource Location Services (RRLP) Application Protocol Data Unit (APDU) with an embedded Radio Resource Location Services (RRLP) Multilateration Timing Advance (MTA) Request message for a target wireless device (604 3 ), and (ii) an indicator that the target wireless device is to perform a Multilateration Timing Advance procedure, characterised in that the indicator is a Multilateration Timer Information Element that includes an indication that the SGSN is to start a timer .
A static transfer switch to transfer an output load from a first power source to a second power source, the static transfer switch comprising: a first switching unit having a first silicon controlled rectifier (SCR) ; a second switching unit having a second SCR ; and a control circuit configured to determine whether at least one of the first SCR or the second SCR is active, wherein the first SCR and the second SCR are selected to have a characteristic that the voltage between the gate and the cathode remains at, at least 150mV until the direct current flowing through the SCR is below a holding current level and the SCR has switched off, and the SCR is determined to be inactive when the voltage between the gate and the cathode drops below 150mV, and wherein the SCR is determined to be active when the voltage between the gate and the cathode is greater than 150mV. a first switching unit having a first silicon controlled rectifier (SCR) ; a second switching unit having a second SCR ; and a control circuit configured to determine whether at least one of the first SCR or the second SCR is active, wherein the first SCR and the second SCR are selected to have a characteristic that the voltage between the gate and the cathode remains at, at least 150mV until the direct current flowing through the SCR is below a holding current level and the SCR has switched off, and the SCR is determined to be inactive when the voltage between the gate and the cathode drops below 150mV, and wherein the SCR is determined to be active when the voltage between the gate and the cathode is greater than 150mV.
Planet carrier forming at least one part of a spline toothing ; characterized by at least one channel which is formed by a groove or by two webs which protrude from the surface of the planet carrier, the opening of which at least one channel faces upwards if an angle included by the axis of rotation of the planet carrier and a vertical is less than 45°; wherein there is an oil-conducting connection between the channel and the spline toothing . at least one channel which is formed by a groove or by two webs which protrude from the surface of the planet carrier, the opening of which at least one channel faces upwards if an angle included by the axis of rotation of the planet carrier and a vertical is less than 45°; wherein there is an oil-conducting connection between the channel and the spline toothing .
End tip for a wiper blade of a screen of a vehicle, comprising a housing extending principally in a first direction and so adapted as to receive equally a first type of stiffening element having a first width or a second type of stiffening element having a second width greater than the first width, the end tip comprising at least one locking means configured to ensure the retention of the end tip on the blade and at least one device for maintaining in position possessing elastic deformation so arranged as to cooperate equally with the first type of stiffening element or the second type of stiffening element , the device for maintaining in position being so arranged as to adopt at least an undeformed rest position and an elastically deformed position in which the device for maintaining in position abuts against the second type of the stiffening element in order to secure it in a final installed position.
A method for classifying images, comprising: a. generating one or more color models , each color model being generated from a respective one of one or more first images comprising a region of interest; b. selecting a representative color model set T' from the one or more color models; and c. classifying one or more second images by using a color matching function with the representative color model set T'; wherein the color matching function between an image I and a color model set T is given by: D I T = ∑ T ∈ T d I T where d( I,T ) denotes a distance between the image I and a color model T ; and wherein the selection of the representative color model set T' comprises: (a') setting the representative color model set T' to void; (b') searching for a color model T a from the one or more generated color models that maximizes the statistical distance U(T): T a = argmax U({ T a } U T'; (c') updating the representative color model set T' by T' ← { T a } U T'; (d') repeating steps (b') to (c') until the statistical distance U(T') reaches a maximum; and wherein the statistical distance U(T) is given by: U T = μ b − μ a 2 σ b σ a where μ a is the mean and σ a is the standard deviation of D( I a , T) for I a ∈ I a and μ b is the mean and σ b is the standard deviation of D( I b , T) for I b ∈ I b wherein I a denotes the one or more first images and I b denotes a set of third images without a region of interest. a. generating one or more color models , each color model being generated from a respective one of one or more first images comprising a region of interest; b. selecting a representative color model set T' from the one or more color models; and c. classifying one or more second images by using a color matching function with the representative color model set T'; (a') setting the representative color model set T' to void; (b') searching for a color model T a from the one or more generated color models that maximizes the statistical distance U(T): T a = argmax U({ T a } U T'; (c') updating the representative color model set T' by T' ← { T a } U T'; (d') repeating steps (b') to (c') until the statistical distance U(T') reaches a maximum;
A die press having upper and lower tooling dies matched to the cross section configuration of a pre-formed laminate for fabricating a thermoplastic composite part in a continuous compression molding process, each tooling die comprising: a contoured surface having a cross-section configuration including at least a first bend forming at least a first segment and a second segment in the cross-section configuration; and a bevel feature at an entry side of the tooling dies comprising a taper portion proximate the incoming edge that extends a first length (LA) from the entry side in the first segment and extends a second length (LB) larger than the first length (LA) from the entry side in the second segment . a contoured surface having a cross-section configuration including at least a first bend forming at least a first segment and a second segment in the cross-section configuration; and a bevel feature at an entry side of the tooling dies comprising a taper portion proximate the incoming edge that extends a first length (LA) from the entry side in the first segment and extends a second length (LB) larger than the first length (LA) from the entry side in the second segment .
A tank telescopic oral cavity washing device , comprising: a device body that a pump is built in; and a tank that comprises a storage unit , the tank being capable of accommodating the device body in the storage unit so as to slidably support the device body , wherein the device body is slidably supported by the tank between an accommodated state where the device body is accommodated in the tank and a pull-out state where the device body is pulled out from the tank , a lock portion that holds the device body in the accommodated state in the tank is formed between the device body and the tank , and the lock portion is configured to release holding of the device body with respect to the tank by rotating the device body relatively with respect to the tank . a device body that a pump is built in; and a tank that comprises a storage unit , the tank being capable of accommodating the device body in the storage unit so as to slidably support the device body , wherein the device body is slidably supported by the tank between an accommodated state where the device body is accommodated in the tank and a pull-out state where the device body is pulled out from the tank , a lock portion that holds the device body in the accommodated state in the tank is formed between the device body and the tank , and the lock portion is configured to release holding of the device body with respect to the tank by rotating the device body relatively with respect to the tank .
A universal serial bus, USB, host , comprising: a USB Type-C interface configured to couple to a USB Type-C cable , wherein the USB Type-C interface comprises a sideband use, SBU, interface and a configuration channel, CC, interface ; a plurality of communication circuits each configured to transmit and receive protocol-specific data based on a specified communication protocol; and characterized in that said host further comprising: a link control circuit communicatively coupled to the USB Type-C interface and the plurality of communication circuits, wherein the link control circuit is configured to: select a communication circuit among the plurality of communication circuits to transmit and receive the protocol-specific data over the SBU interface based on the specified communication protocol of the selected communication circuit; configure the SBU interface according to the specified communication protocol of the selected communication circuit; provide the protocol-specific data received from the selected communication circuit to the SBU interface; and provide the protocol-specific data received from the SBU interface to the selected communication circuit. a USB Type-C interface configured to couple to a USB Type-C cable , wherein the USB Type-C interface comprises a sideband use, SBU, interface and a configuration channel, CC, interface ; a plurality of communication circuits each configured to transmit and receive protocol-specific data based on a specified communication protocol; and characterized in that said host further comprising: a link control circuit communicatively coupled to the USB Type-C interface and the plurality of communication circuits, wherein the link control circuit is configured to: select a communication circuit among the plurality of communication circuits to transmit and receive the protocol-specific data over the SBU interface based on the specified communication protocol of the selected communication circuit; configure the SBU interface according to the specified communication protocol of the selected communication circuit; provide the protocol-specific data received from the selected communication circuit to the SBU interface; and provide the protocol-specific data received from the SBU interface to the selected communication circuit. select a communication circuit among the plurality of communication circuits to transmit and receive the protocol-specific data over the SBU interface based on the specified communication protocol of the selected communication circuit; configure the SBU interface according to the specified communication protocol of the selected communication circuit; provide the protocol-specific data received from the selected communication circuit to the SBU interface; and provide the protocol-specific data received from the SBU interface to the selected communication circuit.
A C-pillar assembly for a vehicle, comprising a rear door, a rear quarter trim , and a sealing member disposed between the rear door and the rear quarter trim, wherein, the rear door comprises a rear door fixed window connected to a rear door inner panel and a rear door frame , and a glass run channel connected to the rear door fixed window, wherein, the rear door fixed window comprises: an encapsulation , an inner side of which being connected with the rear door frame ; a rear door fixed window glass , fixed to an outer side of the encapsulation; characterized in that it further comprises an insert , at least partially inserted in the encapsulation and connected to the glass run channel to connect the glass run channel with the rear door fixed window and in that the insert comprises: a first portion extending out from the encapsulation to connect with the glass run channel, and a second portion inserted in the encapsulation. an encapsulation , an inner side of which being connected with the rear door frame ; a rear door fixed window glass , fixed to an outer side of the encapsulation; characterized in that it further comprises an insert , at least partially inserted in the encapsulation and connected to the glass run channel to connect the glass run channel with the rear door fixed window and in that the insert comprises: a first portion extending out from the encapsulation to connect with the glass run channel, and a second portion inserted in the encapsulation.
A nucleotide or nucleoside molecule having a ribose or deoxyribose sugar moiety and a base linked to a detectable label via a linker containing an azido group, wherein the sugar moiety comprises a protecting group attached via a 3' oxygen atom, and wherein said protecting group is azidomethyl (CH 2 N 3 ).
A skate sharpening system comprising an operative unit and a base , the operative unit comprising a central body , the central body comprising a skate receiving slot, a skate clamp being positioned adjacent to the skate receiving slot such that a skate can be secured within the skate receiving slot for a sharpening operation, the operative unit further comprising a grinding unit, , the grinding unit being configured to translate along a length of the slot such that the grinding unit can conduct the sharpening operation on the skate that is secured within the skate receiving slot, the operative unit being positioned over at least a portion of the base , the base comprising a swarf-receiving cavity, the operative unit and the base being pivotably connected, characterised in that the skate sharpening system further comprises a position lock that secures the operative unit against movement relative to the base .
A process for the alkylation of aromatic hydrocarbons selected from benzene, toluene and xylene by means of aliphatic alcohols containing from 1 to 8 carbon atoms, which comprises feeding the hydrocarbon and alcohol to the head of a fixed-bed alkylation reactor, operating under "trickle flow" regime, containing at least one layer of catalyst comprising a large-pore zeolite of the MTW, FAU or BEA type; wherein said process is carried out in continuous and comprises: a. mixing, in liquid phase, at least one aromatic hydrocarbon (A) selected from benzene, toluene and xylene, a C 1 -C 8 alcohol (B) and a recycled stream (C) coming from a discharge section of the alkylation reactor; wherein the recycling weight ratio C/AB between the recycled stream (C) and the reacting mixture (AB) ranges from 2:1 to 6:1, b. feeding the mixture obtained in step (a), pre-heated to the reaction temperature, to the head of the fixed-bed alkylation reactor; c. cooling the reaction mixture in a discharge section, to obtain an organic phase, comprising the alkylated aromatic hydrocarbon and an aqueous phase essentially consisting of reaction water; d. subdividing the organic phase into a recycled stream (C), sent to the head of the alkylation reactor for the mixing phase with the reagents, and a final stream, comprising the alkylated aromatic hydrocarbon; wherein the flow rate of the reagents to the alkylation reactor is such as to provide a WHSV which ranges from 1 to 8 hours -1 ; characterized in that : in the alkylation reactor, the reaction temperature ranges from 160 to 250°C, the internal pressure ranges from 1 to 10 MPa and a gas phase essentially consisting of the reagents and a liquid phase essentially consisting of the alkylation products coexist inside the alkylation reactor, and both phases pass through the catalyst in equicurrent; and the water which is formed is distributed between the gaseous phase and the liquid phase and is prevalently in the gaseous phase. a. mixing, in liquid phase, at least one aromatic hydrocarbon (A) selected from benzene, toluene and xylene, a C 1 -C 8 alcohol (B) and a recycled stream (C) coming from a discharge section of the alkylation reactor; wherein the recycling weight ratio C/AB between the recycled stream (C) and the reacting mixture (AB) ranges from 2:1 to 6:1, b. feeding the mixture obtained in step (a), pre-heated to the reaction temperature, to the head of the fixed-bed alkylation reactor; c. cooling the reaction mixture in a discharge section, to obtain an organic phase, comprising the alkylated aromatic hydrocarbon and an aqueous phase essentially consisting of reaction water; d. subdividing the organic phase into a recycled stream (C), sent to the head of the alkylation reactor for the mixing phase with the reagents, and a final stream, comprising the alkylated aromatic hydrocarbon;