mhurhangee/ep-ind-claims huggingface dataset:
Method for monitoring or tracking between mobile devices (T1,..., T15) of a same group of mobile devices, wherein - mobile devices (T1,..., T15) broadcast messages in general broadcast mode over a radio interface in compliance with a short-range digital communication protocol, the messages being able to be received by all the other mobile devices (T1,..., T15) in the vicinity and capable of communicating according to said protocol, the messages comprising encrypted data obtained by encryption of, at least, an identifier of the emitter device and a seed intended for single use or having a short period of validity, the encrypted data only being able to be decrypted by a limited group of mobile devices possessing a decryption key; - mobile devices (T1,..., T15) receive the messages broadcast by the other mobile devices and decrypt the messages intended for a group to which they belong; and - wherein, if the protocol for short-range digital communication provides that the message comprises a field for the address of the emitter device, this field is filled with a randomised address intended for single use or having a short period of use, and in that the mobile devices (T1,..., T15) emit, in addition to the messages intended for the groups to which they belong, dummy messages in order to conceal the number of groups to which each mobile device belongs. - mobile devices (T1,..., T15) broadcast messages in general broadcast mode over a radio interface in compliance with a short-range digital communication protocol, the messages being able to be received by all the other mobile devices (T1,..., T15) in the vicinity and capable of communicating according to said protocol, the messages comprising encrypted data obtained by encryption of, at least, an identifier of the emitter device and a seed intended for single use or having a short period of validity, the encrypted data only being able to be decrypted by a limited group of mobile devices possessing a decryption key; - mobile devices (T1,..., T15) receive the messages broadcast by the other mobile devices and decrypt the messages intended for a group to which they belong; and - wherein, if the protocol for short-range digital communication provides that the message comprises a field for the address of the emitter device, this field is filled with a randomised address intended for single use or having a short period of use,
Apparatus for profile extrusion, comprising at least two components (1, 2, 3) that can be placed against the profile to be extruded, each of the at least two components (1, 2, 3) featuring a contact surface (1a, 2a, 3a) that can be placed against the profile to be extruded, the at least two components (1, 2, 3) being arranged in such a way that the contact surfaces (1a, 2a, 3a) of the components (1, 2, 3) encircle the profile to be extruded, each of the at least two components (1, 2, 3) having an axis of rotation around which the components (1, 2, 3) can be twisted, the at least two components (1, 2, 3) being designed as rollers whose contact surfaces (1a, 2a, 3a) having a radius that changes in the peripheral direction of the component, characterized in that the rollers (1, 2, 3) are arranged in or against a vacuum tank or before a cutting device for clamping.
A medicant delivery method, wherein a fluid is firstly introduced into a pressure-in pathway of a pressure route at a container containing thereinside a medicant, a first connecting channel is sealed to allow the fluid to enter a pressure-out pathway of the pressure route as a flow rate of the fluid is stable, the fluid leaves the pressure-out pathway via a pressure-route outlet, and then the fluid pushes and conveys the medicant out of the container via a container outlet, characterized in that the medicant is pushed and conveyed further to a pressure-adjusting assembly in order to improve the pressure of the medicant and to discharge the medicant directly, wherein the pressure-adjusting assembly includes an injection nozzle, the injection nozzle has an injection-nozzle inlet, an injection-nozzle outlet having a tunnel wall forming an axial angle with the injection nozzle, and a buffer segment disposed between the injection-nozzle inlet and the injection-nozzle outlet.
A method of fabricating a component comprising the steps of: at least partially melting only a first portion (171A, 171B, 171C, 471A) of a first layer of particles of a first material deposited onto a substrate using a first high energy beam to fuse the particles of the first material and thereby form a first component layer of the component, the entirety of the first component layer being formed simultaneously around an unheated portion of the first layer; and at least partially melting only a first portion (181A, 181B, 181C) of a second layer of particles of a second material deposited onto the first component layer using the first high energy beam to fuse the particles of the second material and thereby form a second component layer of the component, the entirety of the second component layer being formed simultaneously around an unheated portion of the second layer, wherein the second component layer is attached to the first component layer. at least partially melting only a first portion (171A, 171B, 171C, 471A) of a first layer of particles of a first material deposited onto a substrate using a first high energy beam to fuse the particles of the first material and thereby form a first component layer of the component, the entirety of the first component layer being formed simultaneously around an unheated portion of the first layer; and at least partially melting only a first portion (181A, 181B, 181C) of a second layer of particles of a second material deposited onto the first component layer using the first high energy beam to fuse the particles of the second material and thereby form a second component layer of the component, the entirety of the second component layer being formed simultaneously around an unheated portion of the second layer, wherein the second component layer is attached to the first component layer.
A compound of formula, wherein R 1 is wherein R 4 is C 1-6 alkyl, C 1-6 alkoxy, haloC 1-6 alkyl, halogen, nitro or cyano; R 4a is C 1-6 alkyl or C 3-7 cycloalkyl; R 5, R 5a and R 5b are independently selected from H and deuterium; R 6 is H or halogen; R 2 is C 1-6 alkyl; R 3 is unsubstituted or substituted heterocyclyl; Y and A are independently selected from CH and N; or a pharmaceutically acceptable salt thereof. R 1 is wherein R 4 is C 1-6 alkyl, C 1-6 alkoxy, haloC 1-6 alkyl, halogen, nitro or cyano; R 4a is C 1-6 alkyl or C 3-7 cycloalkyl; R 5, R 5a and R 5b are independently selected from H and deuterium; R 6 is H or halogen; R 2 is C 1-6 alkyl; R 3 is unsubstituted or substituted heterocyclyl; Y and A are independently selected from CH and N; or a pharmaceutically acceptable salt thereof.
A cooking device comprising a body, an oven cavity disposed on the body, wherein the items to be cooked are placed, a door providing access into the oven cavity, fastened to the side wall of the body from one side, an inner panel forming the surface of the door contacting the oven cavity, an outer panel produced from glass and disposed on the door, forming the surface of the door in contact with the outside environment, having a skirt that projects outwards from the inner panel when the outer panel aligned with the inner panel so as to be almost concentric with the inner panel, a frame disposed between the inner panel and the outer panel, with the inner panel fixed on one side and the outer panel on the other side, being parallel to one another, such that the skirt projects outwards, a lock mounted on the door, providing the door to remain closed during cooking and a housing wherein the lock is placed, characterized by - a connection member fixed on the skirt by adhesion and - the housing that is fastened on the door by having fixed one surface on the connection member and the other surface on the frame. - a connection member fixed on the skirt by adhesion and - the housing that is fastened on the door by having fixed one surface on the connection member and the other surface on the frame.
Method for setting an illumination setting for illuminating an object field of a projection exposure apparatus, comprising the following steps: 1.1. providing an illumination system for illuminating an object field with illumination radiation, 1.2. prescribing at least one parameter for characterizing the quality of the illumination of the object field, 1.3. determining a spatially resolved function P(ΔI(x,y)) of the dependence of the at least one parameter on a change in the intensity of the illumination radiation (ΔI(x,y)) in the illumination pupil, 1.4. determining a norm (N(x,y)) of a directional derivative of this function P(ΔI(x,y)), 1.5. adapting an illumination setting for illuminating the object field to the norm (N(x,y)). 1.1. providing an illumination system for illuminating an object field with illumination radiation, 1.2. prescribing at least one parameter for characterizing the quality of the illumination of the object field, 1.3. determining a spatially resolved function P(ΔI(x,y)) of the dependence of the at least one parameter on a change in the intensity of the illumination radiation (ΔI(x,y)) in the illumination pupil, 1.4. determining a norm (N(x,y)) of a directional derivative of this function P(ΔI(x,y)), 1.5. adapting an illumination setting for illuminating the object field to the norm (N(x,y)).
An aerosol provision device comprising: a device housing having a device chamber; a removable receptacle arranged to be at least partially received in the device chamber; the receptacle comprising: a base; a wall arrangement extending from the base, the base and wall arrangement defining a heating chamber arranged to removably receive at least a portion of an article comprising aerosol generating material; a heating element for heating at least a portion of an article comprising aerosol generating material received in the heating chamber; wherein the receptacle has a closed channel within the wall arrangement, the closed channel within the wall arrangement being at least partially received within the device chamber when the receptacle is received within the device chamber to provide airflow to the heating chamber. a device housing having a device chamber; a removable receptacle arranged to be at least partially received in the device chamber; the receptacle comprising: a base; a wall arrangement extending from the base, the base and wall arrangement defining a heating chamber arranged to removably receive at least a portion of an article comprising aerosol generating material; a heating element for heating at least a portion of an article comprising aerosol generating material received in the heating chamber; a base; a wall arrangement extending from the base, the base and wall arrangement defining a heating chamber arranged to removably receive at least a portion of an article comprising aerosol generating material; a heating element for heating at least a portion of an article comprising aerosol generating material received in the heating chamber; wherein the receptacle has a closed channel within the wall arrangement, the closed channel within the wall arrangement being at least partially received within the device chamber when the receptacle is received within the device chamber to provide airflow to the heating chamber.
A closure of a espagnolette fitting for a casement of a window, a window door or the like pivotable against a frame, having a housing for the mounting of a locking element drivable by a longitudinally displaceable drive rod, wherein the locking element is pivotable from a lowered position into a protruding position, wherein a pivotal axis of the locking element is arranged parallel to the intended direction of movement of the drive rod, and having a counter bearing facing opposite the locking element located in the protruding position, and with a rotatable eccentric having means for the adjustment of the contact pressure of the locking element located in the protruding position against the counter bearing, characterized in that the eccentric is arranged rotatably in the housing and has a lateral surface projecting above the housing for the support of the casement or the frame.
A method for communicating data representing spatially localized information to a mobile terminal in relation to the location of said mobile terminal in a sales area equipped with a distributed series of electronic labels, each electronic label being identified by a unique label identifier particular to said label, said method comprising the steps in which: - a mobile terminal sets up a communication via radio-frequency with a radio-frequency peripheral of an electronic label, - the radio-frequency peripheral of said electronic label communicates to said mobile terminal a label identifier of said electronic label, - the mobile terminal communicates said label identifier to a central server, said central server comprising a planogram associating with each label identifier a unique location particular to it, said unique location comprising a height of said electronic label in a shelving of the sales area, - the central server determines a location of said mobile terminal from the label identifier of said electronic label, using data of the planogram associating with the label identifier a unique location particular to the label identifier, the thus determined location of said mobile terminal comprising a height of said mobile terminal determined from the height of said electronic label, - the central server communicates to the mobile terminal data representing spatially localized information associated with the location of said mobile terminal. - a mobile terminal sets up a communication via radio-frequency with a radio-frequency peripheral of an electronic label, - the radio-frequency peripheral of said electronic label communicates to said mobile terminal a label identifier of said electronic label, - the mobile terminal communicates said label identifier to a central server, said central server comprising a planogram associating with each label identifier a unique location particular to it, said unique location comprising a height of said electronic label in a shelving of the sales area, - the central server determines a location of said mobile terminal from the label identifier of said electronic label, using data of the planogram associating with the label identifier a unique location particular to the label identifier, the thus determined location of said mobile terminal comprising a height of said mobile terminal determined from the height of said electronic label, - the central server communicates to the mobile terminal data representing spatially localized information associated with the location of said mobile terminal.
A material comprising a transparent substrate, on at least one surface of which is deposited a stack of layers comprising, from the substrate, three silver-based functional metal layers, F1, F2 and F3, with physical thicknesses EF1, EF2 and EF3 respectively, and four dielectric assemblies of layers, E1, E2, E3 and E4, with optical thicknesses are EO1, EO2, EO3 and EO4 respectively, each of the silver-based functional metal layers, F1, F2 and F3, being positioned respectively between the two dielectric assemblies of layers, E1 and E2, E2 and E3, and E3 and E4, said material being characterized in that: - the ratio of the physical thickness EF1 of the functional metal layer F1 to the physical thickness EF2 of the functional metal layer F2 is between 0.95 and 1.05; - the thickness of the physical layer EF3 of the functional metal layer F3 is greater than the physical thicknesses EF1 and EF2 of the functional layers F1 and F2; - the optical thickness EO2 of the dielectric assembly of layers E2 is between 60 and 80 nm; - the optical thickness EO1 of the dielectric assembly of layers E1 is between 200 and 250 nm; - the optical thicknesses EO1, EO2, EO3 and EO4 are such that EO2 < EO4 < EO3 < EO1; - the dielectric assembly of layers E4 comprises at least one layer which absorbs infrared radiation with a physical thickness of between 0.1 nm and 5 nm. - the ratio of the physical thickness EF1 of the functional metal layer F1 to the physical thickness EF2 of the functional metal layer F2 is between 0.95 and 1.05; - the thickness of the physical layer EF3 of the functional metal layer F3 is greater than the physical thicknesses EF1 and EF2 of the functional layers F1 and F2; - the optical thickness EO2 of the dielectric assembly of layers E2 is between 60 and 80 nm; - the optical thickness EO1 of the dielectric assembly of layers E1 is between 200 and 250 nm; - the optical thicknesses EO1, EO2, EO3 and EO4 are such that EO2 < EO4 < EO3 < EO1; - the dielectric assembly of layers E4 comprises at least one layer which absorbs infrared radiation with a physical thickness of between 0.1 nm and 5 nm.
A light emitting diode apparatus (500, 600), comprising: a light-transmissive layer having a first side and a second side, the light-transmissive layer being formed with one or more recesses formed in the first side; one or more regions of a wavelength-conversion material disposed in at least a portion of the first side of the light-transmissive layer, wherein the wavelength-conversion material is received in the one or more recesses; one or more LEDs (442, 444, 446) disposed on the light-transmissive layer such that light emitted from one or more LED can pass through the wavelength-conversion material; and an opaque encapsulant disposed around and between the one or more LEDs, wherein a first LED of the one or more LEDs (442, 444, 446) is aligned with the location of a first recess of the one or more recesses, characterized in that the opaque encapsulant comprises a red-passing pigment. a light-transmissive layer having a first side and a second side, the light-transmissive layer being formed with one or more recesses formed in the first side; one or more regions of a wavelength-conversion material disposed in at least a portion of the first side of the light-transmissive layer, wherein the wavelength-conversion material is received in the one or more recesses; one or more LEDs (442, 444, 446) disposed on the light-transmissive layer such that light emitted from one or more LED can pass through the wavelength-conversion material; and an opaque encapsulant disposed around and between the one or more LEDs, wherein a first LED of the one or more LEDs (442, 444, 446) is aligned with the location of a first recess of the one or more recesses, characterized in that the opaque encapsulant comprises a red-passing pigment.
A method for determining the absolute angular position of a rotor of a polyphase rotating field machine (13, 41), comprising the following steps: - generating a rotating field by feeding a polyphase test signal into the rotating field machine; - measuring the phase currents produced in the rotating field machine by the polyphase test signal; - determining two current values i α and i β relating to a two-phase system from the measured phase currents, the two-phase system being stationary together with a stator of the rotating field machine (13, 41); - forming two products i α ·i α ·i β and i β ·i α ·i β, the current values i α and i β each being filtered with a high-pass filter (16; 17) before product formation; and - determining an arc function value for a quotient of the formed products, the formed products i α ·i α ·i β and i β ·i α ·i β each being filtered with a low-pass filter (23, 24) before the quotient thereof is determined; characterised in that, to form the products i α · i α · i β and i β ·i α ·i β, first the intermediate product i α ·i β is formed, which is then multiplied by the factor i α or i β, wherein the intermediate product i α · i β is filtered with a high-pass filter before further product formation. - generating a rotating field by feeding a polyphase test signal into the rotating field machine; - measuring the phase currents produced in the rotating field machine by the polyphase test signal; - determining two current values i α and i β relating to a two-phase system from the measured phase currents, the two-phase system being stationary together with a stator of the rotating field machine (13, 41); - forming two products i α ·i α ·i β and i β ·i α ·i β, the current values i α and i β each being filtered with a high-pass filter (16; 17) before product formation; and - determining an arc function value for a quotient of the formed products, the formed products i α ·i α ·i β and i β ·i α ·i β each being filtered with a low-pass filter (23, 24) before the quotient thereof is determined;
A motion vector determining method for determining a motion vector of via current block included in a current picture, said motion vector determining method being characterized by: specifying a co-located block which is a block included in a second picture that is a B picture and different from the current picture, the co-located block having two motion vectors and being located in the second picture at the same position that the current block is located in the current picture; and determining first and second motion vectors for performing motion compensation on the current block, using a third motion vector which is one of the two motion vectors of the co-located block, wherein the first and second motion vectors are used for motion compensation of the current block, wherein, in the case where a reference picture referred to by the third motion vector is stored in a long term picture buffer, (i) the first motion vector, which refers to the reference picture, is determined to be equal to the third motion vector, and (ii) the second motion vector, which refers to the second picture, is determined to be equal to a value of 0. specifying a co-located block which is a block included in a second picture that is a B picture and different from the current picture, the co-located block having two motion vectors and being located in the second picture at the same position that the current block is located in the current picture; and determining first and second motion vectors for performing motion compensation on the current block, using a third motion vector which is one of the two motion vectors of the co-located block, wherein the first and second motion vectors are used for motion compensation of the current block, wherein, in the case where a reference picture referred to by the third motion vector is stored in a long term picture buffer, (i) the first motion vector, which refers to the reference picture, is determined to be equal to the third motion vector, and (ii) the second motion vector, which refers to the second picture, is determined to be equal to a value of 0.