mhurhangee/patent-ind-claim-en huggingface dataset:
A bollard system comprising: an impact receiving post having an outer surface, the impact receiving post being bendable and having a proximal end and a distal end; characterised in that the bollard system further comprises a foundation cage defining a three-dimensional lattice structure, the foundation cage coupled to the proximal end of the impact receiving post and configured for installation in concrete beneath a ground surface, the foundation cage defining a recess that receives a proximal portion of the impact receiving post, the foundation cage including a platform at least partially extending across the recess and supporting the impact receiving post and preventing the impact receiving post from extending further into the foundation cage. an impact receiving post having an outer surface, the impact receiving post being bendable and having a proximal end and a distal end; characterised in that the bollard system further comprises a foundation cage defining a three-dimensional lattice structure, the foundation cage coupled to the proximal end of the impact receiving post and configured for installation in concrete beneath a ground surface, the foundation cage defining a recess that receives a proximal portion of the impact receiving post, the foundation cage including a platform at least partially extending across the recess and supporting the impact receiving post and preventing the impact receiving post from extending further into the foundation cage.
A breast model based method for linking breast lesion locations, the method comprising the steps of receiving first image data of a first image of a patient's breast (S1), providing coordinates of a lesion location in the first image of the patient's breast (S2); providing a predefined generic geometric breast model which is a representation of a female breast (S3); wherein the predefined generic geometric breast model is based on a normalized breast coordinate system; mapping the first image data with the predefined generic geometric breast model (S4); and linking the lesion location of the lesion in the first image with a corresponding location in the predefined generic geometric breast model thereby storing linking data (S5); receiving second image data of a second image of a patient's breast (S6), mapping the second image data with the predefined generic geometric breast model (S7); and automatically locating the lesion location in the second image based on the stored linking data (S8a).
An electrostatic latent image developing toner comprising a plurality of toner particles each including a core and a shell layer disposed over a surface of the core, wherein the shell layer includes a plurality of first domains and a second domain that is present at least among the plurality of first domains, the plurality of first domains are each substantially formed from a first thermoplastic resin, the second domain is substantially formed from a second thermoplastic resin that is more hydrophobic than the first thermoplastic resin, the first thermoplastic resin includes at least one specific repeating unit having at least one group selected from the group consisting of a hydroxyl group, an amino group, and an amide group, a proportion of the at least one specific repeating unit among all repeating units included in the first thermoplastic resin is at least 0.5 mol% and no greater than 50 mol% , the shell layer has sea-and-island structure in which the plurality of first domains are distributed like islands and the second domain is distributed like a sea, each of the plurality of first domains is a particle substantially formed from the first thermoplastic resin, the second domain is a film substantially formed from the second thermoplastic resin, and a proportion of a thermosetting resin formed by polymerization reaction of formaldehyde or isocyanate among all resins forming the shell layer is not greater than 5% by mass.
A merchandise tag comprising: a label formed of a fabric material; a wireless communication device incorporated into the label and including an RFID chip , and a slot-loop hybrid antenna electrically coupled to the RFID chip and including a conductor sheet defining a slot ; and a sew line at which the label is secured to a piece of merchandise, wherein the sew line divides the label into an upper portion and a lower portion , the RFID chip and the slot of the antenna are positioned entirely within the upper portion of the label , and the conductor sheet includes a relatively high conductance portion, as compared to the conductance of the lower portion, corresponding to the upper portion and a relatively low conductance portion, as compared to the conductance of the upper portion, corresponding to the lower portion , with the RFID chip being electrically coupled to the portion having the greater conductance and the slot being defined in the portion having the greater conductance. a label formed of a fabric material; a wireless communication device incorporated into the label and including an RFID chip , and a slot-loop hybrid antenna electrically coupled to the RFID chip and including a conductor sheet defining a slot ; and an RFID chip , and a slot-loop hybrid antenna electrically coupled to the RFID chip and including a conductor sheet defining a slot ; and a sew line at which the label is secured to a piece of merchandise, wherein the sew line divides the label into an upper portion and a lower portion , the RFID chip and the slot of the antenna are positioned entirely within the upper portion of the label , and the conductor sheet includes a relatively high conductance portion, as compared to the conductance of the lower portion, corresponding to the upper portion and a relatively low conductance portion, as compared to the conductance of the upper portion, corresponding to the lower portion , with the RFID chip being electrically coupled to the portion having the greater conductance and the slot being defined in the portion having the greater conductance.
A crystalline mono-succinate Form I of compound I, wherein the X-ray powder diffraction pattern of the crystalline Form I shows characteristic peaks at 2theta values of 11.9°±0.2°, 19.4°±0.2°, 20.6°±0.2° using CuKα radiation.
Thermal management system for an electric vehicle, comprising a control unit , a battery circuit connected in a heat-transferring manner to a traction battery of the electric vehicle, a drive circuit connected in a heat-transferring manner to an electric drive of the electric vehicle and/or to power electronics for an electric drive , and an air conditioning circuit connected in a heat-transferring manner to a vehicle interior of the electric vehicle, wherein, on the one hand the battery circuit and the drive circuit can each be operated with a coolant and can be connected to one another in a coolant-conducting manner or separated from one another by means of a controllable coolant valve , and on the other hand the air conditioning circuit can be operated with a refrigerant different from the coolant, and in which a heat transfer connection between the battery circuit and/or the drive circuit on the one side and the air conditioning circuit on the other side can be established or separated by means of at least one heat exchanger device of the thermal management system , depending on an actuation of a coolant valve and an actuation of the heat exchanger device by means of the control unit in such a way that the heat exchanger device has at least one refrigerant valve and at least one heat exchanger , whereby refrigerant can flow through said heat exchanger or not, depending on the actuation of the refrigerant valve by means of the control unit , and whereby in addition to the heat exchanger device a cooler , namely a so-called chiller, an evaporator , a condenser , an accumulator , a compressor and two valves are arranged in the air conditioning circuit in such a way that the cooler is arranged in both the battery circuit and the air conditioning circuit and, analogous to the heat exchanger device , a heat transfer connection between the air conditioning circuit on the one side and the battery circuit on the other side can be established or separated by means of the cooler , depending on an actuation of the coolant valve and an actuation of the valve by means of the control unit , so that the refrigerant can flow through the cooler or not, depending on the actuation of the valve by the control unit , characterized in that , the thermal management system is designed in such a way that both the heat exchanger and the cooler can be used at the same time to transfer the waste heat from the drive circuit , namely the waste heat from the electric drive and the power electronics , and the waste heat from the battery circuit , namely the waste heat from the traction battery , to heat the vehicle interior of the electric vehicle.
Device for adjusting the height of a loading platform for the cargo compartment of a vehicle, in which, in an adjustment process, the loading platform can be placed at least in a first upper placement position (I) in the height direction (z) of the vehicle and in a second lower placement position (II) in the height direction (z) of the vehicle, wherein the device has at least one support element which is adjustably mounted at a bearing point and, in a use position, supports the loading platform in its upper placement position (I), and wherein the support element has associated with it a spring element with which the support element is flexibly elastically prestressed in the direction of the use position with a prestressing force (Fv), wherein the support element is a flap hinged at the bearing point so as to be pivotable about a pivot axis (K), wherein the bearing point is provided in a side wall delimiting the cargo compartment in a transverse direction (y) of the vehicle, and wherein the support element has an actuation contour upon whose actuation the support element can be set into its non-use position, wherein the support element has a supporting web on which the loading platform can be supported in its upper placement position (I), wherein an outer edge of the loading platform overlaps the supporting web with an excess length (Δy 1 ), wherein the supporting web of the support element merges into the actuating contour in the longitudinal vehicle direction (x), and the actuating contour is expanded in the contour profile in the longitudinal vehicle direction (x) by a transverse offset (Δy 2 ) until it is laterally outside of the outer edge of the loading platform .
A method of operating a memory including a plurality of flash memory cells , the method comprising: determining a programmed data state of at least one aggressor memory cell of the plurality of flash memory cells physically near a cell to be read of the plurality of flash memory cells and determining at least one soft bit of data encoding the programmed data state; determining the threshold voltage of the cell to be read; determining a plurality of hard bits of data for the determined threshold voltage, wherein the plurality of hard bits encode the determined threshold voltage of the cell to be read; and determining a hard bit of the plurality of hard bits as an output of a read operation using the encoding of the at least one soft bit of data. determining a programmed data state of at least one aggressor memory cell of the plurality of flash memory cells physically near a cell to be read of the plurality of flash memory cells and determining at least one soft bit of data encoding the programmed data state; determining the threshold voltage of the cell to be read; determining a plurality of hard bits of data for the determined threshold voltage, wherein the plurality of hard bits encode the determined threshold voltage of the cell to be read; and determining a hard bit of the plurality of hard bits as an output of a read operation using the encoding of the at least one soft bit of data.
A method for forming an overwrap container, the method comprising the steps of: a) providing a base container having a first side seam on a side wall that extends along a longitudinal axis to define an internal volume, and a bottom secured to the side wall; b) providing the side wall of the base container with connecting elements on an outer periphery of the side wall; c) providing an overwrap having a second side seam over the side wall of the base container such that the overwrap is joined in spaced apart relationship by the connecting elements to the side wall of the base container; d) clamping the overwrap to the base container along the second side seam to form a first compressed area; e) clamping the overwrap to the base container in an area 180° removed from the second side seam to form a second compressed area; and f) reforming the second compressed area to define an overwrap container having a substantially uniform spacing and air gap between the base container and the overwrap except in the first compressed area. a) providing a base container having a first side seam on a side wall that extends along a longitudinal axis to define an internal volume, and a bottom secured to the side wall; b) providing the side wall of the base container with connecting elements on an outer periphery of the side wall; c) providing an overwrap having a second side seam over the side wall of the base container such that the overwrap is joined in spaced apart relationship by the connecting elements to the side wall of the base container; d) clamping the overwrap to the base container along the second side seam to form a first compressed area; e) clamping the overwrap to the base container in an area 180° removed from the second side seam to form a second compressed area; and f) reforming the second compressed area to define an overwrap container having a substantially uniform spacing and air gap between the base container and the overwrap except in the first compressed area.
Connector for a patient ventilation system - for connection to a heatable breathing air tube section to guide ventilation air from a breathing air source to a patient, - for connection of the breathing air tube section to a patient air interface , - wherein at least one section (60; 60 1 , 60 2 , 60 3 ; 62) of the connector is made of a thermochromic material, - wherein the connector has several sections (60 1 , 60 2 , 60 3 ) which are each made of a thermochromic material with different colour change temperatures, - wherein at least one of the sections (60 1 , 60 2 , 60 3 ) is made of a reversible thermochromic material and at least one other of the sections (60 1 , 60 2 , 60 3 ) is made of a non-reversible thermochromic material. - for connection to a heatable breathing air tube section to guide ventilation air from a breathing air source to a patient, - for connection of the breathing air tube section to a patient air interface , - wherein at least one section (60; 60 1 , 60 2 , 60 3 ; 62) of the connector is made of a thermochromic material, - wherein the connector has several sections (60 1 , 60 2 , 60 3 ) which are each made of a thermochromic material with different colour change temperatures, - wherein at least one of the sections (60 1 , 60 2 , 60 3 ) is made of a reversible thermochromic material and at least one other of the sections (60 1 , 60 2 , 60 3 ) is made of a non-reversible thermochromic material.
A method of determining a spatial luminance distribution over at least one image of a scene illuminated by at least one illuminant , the image comprising RGB values for each pixel, the method comprising: forming (S404, S530) a combination of the RGB values to determine the spatial luminance distribution, the combination having a set of coefficients comprising a respective coefficient for each of the RGB values; wherein the coefficients are determined by: identifying (S402, S512) a spectral power distribution, SPD, of the at least one illuminant ; and determining (S403, S513) values of the set of coefficients that minimize a spectral mismatch between: a) the identified SPD weighted by the combination; and b) the identified SPD weighted by a luminosity function, wherein the luminosity function models the average spectral sensitivity of the human visual perception of light. forming (S404, S530) a combination of the RGB values to determine the spatial luminance distribution, the combination having a set of coefficients comprising a respective coefficient for each of the RGB values; wherein the coefficients are determined by: identifying (S402, S512) a spectral power distribution, SPD, of the at least one illuminant ; and determining (S403, S513) values of the set of coefficients that minimize a spectral mismatch between: a) the identified SPD weighted by the combination; and b) the identified SPD weighted by a luminosity function, wherein the luminosity function models the average spectral sensitivity of the human visual perception of light. identifying (S402, S512) a spectral power distribution, SPD, of the at least one illuminant ; and determining (S403, S513) values of the set of coefficients that minimize a spectral mismatch between: a) the identified SPD weighted by the combination; and b) the identified SPD weighted by a luminosity function, wherein the luminosity function models the average spectral sensitivity of the human visual perception of light.
A nonwoven abrasive wheel comprising: one or more layers of a nonwoven fiber web , a plurality of super abrasive particles having a Vickers hardness greater than 40 GPa, a polyurethane binder adhering the plurality of super abrasive particles to the nonwoven fibers and adhering the layers of the nonwoven fiber web to each other, characterised in that the nonwoven abrasive wheel comprises a Flexural Modulus from 4.0 to 128.0 lb/inch (700 to 22420 N/m) of thickness per inch (0.0254 m) of displacement.
A method for forming an article of manufacture using additive manufacturing, comprising: (a) rotating an object continuously about a horizontal axis using a first rotational stage , wherein the object is partially submerged in a bath of energy curable liquid formulation during the rotation; (b) controlling a rate of rotation of the object to achieve a desired radial thickness of a sub layer of uncured liquid formulation at a desired rotational location on the object; (c) directing an energy source to provide an energy dose onto the object at a desired rotational location, wherein the energy dose is configured to cure and solidify the sub layer; and repeating (a), (b) and (c) until a desired radial thickness of a cured liquid formulation layer is a achieved. (a) rotating an object continuously about a horizontal axis using a first rotational stage , wherein the object is partially submerged in a bath of energy curable liquid formulation during the rotation; (b) controlling a rate of rotation of the object to achieve a desired radial thickness of a sub layer of uncured liquid formulation at a desired rotational location on the object; (c) directing an energy source to provide an energy dose onto the object at a desired rotational location, wherein the energy dose is configured to cure and solidify the sub layer; and
. A compound I or a pharmaceutically acceptable salt thereof for use in the treatment of oesophageal cancer,
An imaging system for a vehicle, comprising: an imager configured to image a scene external and forward of the vehicle and to generate image data corresponding to the acquired images; and a processor configured to receive and analyze the image data to identify red light sources and to further analyze each red light source to determine if the red light source is detected for a first predetermined time period, wherein if, between each pulse of the red light source, a detected brightness of the red light source returns to zero on a periodic basis and the red light source is not detected within a second predetermined time period based on a known frequency at which stop lights flash after it is detected, said processor is configured to: (a) determine that the red light source is a nonvehicle flashing red light source of a stop light at an intersection flashing at the known frequency at which stop lights flash and (b) generate a control signal that is used to set the exterior lights of the vehicle to a low beam state when a detected nonvehicle flashing red light source of a stop light reaches a predetermined threshold brightness related to a distance from the intersection where the stop light is located, otherwise if the red light source is detected for a third predetermined time period, said processor is configured to determine that the red light source may be a tail light of another vehicle. an imager configured to image a scene external and forward of the vehicle and to generate image data corresponding to the acquired images; and a processor configured to receive and analyze the image data to identify red light sources and to further analyze each red light source to determine if the red light source is detected for a first predetermined time period, wherein if, between each pulse of the red light source, a detected brightness of the red light source returns to zero on a periodic basis and the red light source is not detected within a second predetermined time period based on a known frequency at which stop lights flash after it is detected, said processor is configured to: (a) determine that the red light source is a nonvehicle flashing red light source of a stop light at an intersection flashing at the known frequency at which stop lights flash and (b) generate a control signal that is used to set the exterior lights of the vehicle to a low beam state when a detected nonvehicle flashing red light source of a stop light reaches a predetermined threshold brightness related to a distance from the intersection where the stop light is located, otherwise if the red light source is detected for a third predetermined time period, said processor is configured to determine that the red light source may be a tail light of another vehicle.
A method, comprising: receiving , by a mobile terminal comprising a trusted execution environment, a message; determining , by the trusted execution environment using a verification key securely stored in the trusted execution environment, whether the message is authentic; and in response to the message being determined by the trusted execution environment authentic and to comprise an instruction to intercept a direct device-to-device communication, rendering the mobile terminal capable of storing at least in part the direct device-to-device communication in at least one of a memory of the mobile terminal and a memory distinct from the mobile terminal. receiving , by a mobile terminal comprising a trusted execution environment, a message; determining , by the trusted execution environment using a verification key securely stored in the trusted execution environment, whether the message is authentic; and in response to the message being determined by the trusted execution environment authentic and to comprise an instruction to intercept a direct device-to-device communication, rendering the mobile terminal capable of storing at least in part the direct device-to-device communication in at least one of a memory of the mobile terminal and a memory distinct from the mobile terminal.