mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: a plurality of human body-detecting sensors configured to detect a human body; a blade configured to change a direction of wind; a blow fan configured to change a speed of wind; and a controller, characterized in that the controller is configured to perform a first sensing mode for detecting a human body, to perform a second sensing mode in which a narrower region than in the first sensing mode is monitored when a human body has been detected, and to adjust, when a human body has been detected in the second sensing mode, a direction and speed of wind according to a direction in which the human body is positioned and a distance from the human body-detecting sensors to the human body, wherein a first sensing region in which a human body is detected in the first sensing mode is a fixed relatively wide region, and a second sensing region in which a human body is detected in the second sensing mode is a part of the first sensing region, and is a relatively narrow sensing region whose location changes in a tangential direction over time. a plurality of human body-detecting sensors configured to detect a human body; a blade configured to change a direction of wind; a blow fan configured to change a speed of wind; and a controller,
A head-up display of directing image light of a display image which is displayed on a display surface to a transmission reflection surface to thereby cause a viewer to visually recognize a virtual image of the display image, the display surface having: a first display surface to emit first image light, which is disposed so that an optical path length of the first image light leading up to the viewer is large; and a second display surface to emit second image light, which is disposed so that an optical path length of the second image light leading up to the viewer is smaller than an optical path length of the first image light, characterized in that the head-up display comprising: a first concave reflector to reflect the first image light and the second image light, having a concave reflection surface; and a second concave reflector to reflect towards the transmission reflection surface the first image light and the second image light that have been reflected by the first concave reflector, wherein the first concave reflector crosses the first image light and the second image light to each other in a vertical direction between the first concave reflector and the second concave reflector. a first display surface to emit first image light, which is disposed so that an optical path length of the first image light leading up to the viewer is large; and a second display surface to emit second image light, which is disposed so that an optical path length of the second image light leading up to the viewer is smaller than an optical path length of the first image light, characterized in that the head-up display comprising: a first concave reflector to reflect the first image light and the second image light, having a concave reflection surface; and a second concave reflector to reflect towards the transmission reflection surface the first image light and the second image light that have been reflected by the first concave reflector, wherein the first concave reflector crosses the first image light and the second image light to each other in a vertical direction between the first concave reflector and the second concave reflector.
Curtain sided transport vehicle comprising a side panel construction, said side panel construction comprising a plurality of panels, each of which connected between two adjacent, in use substantially vertically oriented, subsequent posts of the curtain sided transport vehicle, wherein said side panel construction comprises an, in use substantially horizontally oriented, bar (30; 31) from which said posts extend, and wherein said posts comprise translation means arranged for engaging said bar such that said posts are moveable in a direction parallel to said bar, characterized in that each of said panels are pivotable around a pivoting axis substantially parallel to at least one of its connecting posts and around a pivoting axis substantially parallel to said bar, such that said panels can be joined together by moving said posts in said direction parallel to said bar, said transport vehicle further comprising a removable sheet material arranged to cover at least the sides of the curtain sided transport vehicle in a closed position, wherein said removable sheet material is provided with supporting strips, which, when said sheet material extends over said panels, run over said panels in between said posts substantially parallel to said posts.
A method for estimating surface roughness of a ground for an off-road vehicle to control ground speed, the method comprising: detecting motion data of an off-road vehicle traversing a field or work site during a sampling interval, the motion data comprising ground speed of the off-road vehicle; and detecting roll acceleration data of the off-road vehicle for the sampling interval; characterized by detecting pitch acceleration data of the off-road vehicle for the sampling interval; determining a surface roughness index based on the detected motion data, pitch acceleration data and roll acceleration data for the sampling interval; estimating zones with corresponding surface roughness index ranges within a field or work site based on the determined surface roughness index as the vehicle traverses or traversed the field or work site over multiple sampling intervals; generating a graphical display that illustrates the estimated zones of corresponding surface roughness or index ranges within the field or work site; displaying the graphical display to a user or operator of the vehicle; determining a position of a vehicle, or its implement, in the field or in the work site with respect to the estimated zones of different corresponding surface roughness index ranges; and estimating a ground speed setting for the vehicle, its implement, or both, consistent with alignment and/or overlap of the determined position of the vehicle, its implement, or both, and the estimated zones. detecting motion data of an off-road vehicle traversing a field or work site during a sampling interval, the motion data comprising ground speed of the off-road vehicle; and detecting roll acceleration data of the off-road vehicle for the sampling interval; characterized by detecting pitch acceleration data of the off-road vehicle for the sampling interval; determining a surface roughness index based on the detected motion data, pitch acceleration data and roll acceleration data for the sampling interval; estimating zones with corresponding surface roughness index ranges within a field or work site based on the determined surface roughness index as the vehicle traverses or traversed the field or work site over multiple sampling intervals; generating a graphical display that illustrates the estimated zones of corresponding surface roughness or index ranges within the field or work site; displaying the graphical display to a user or operator of the vehicle; determining a position of a vehicle, or its implement, in the field or in the work site with respect to the estimated zones of different corresponding surface roughness index ranges; and estimating a ground speed setting for the vehicle, its implement, or both, consistent with alignment and/or overlap of the determined position of the vehicle, its implement, or both, and the estimated zones.
A refrigerant distributor of a motor vehicle, comprising an inlet channel, which extends substantially linearly along an inlet axis and has a channel cross-section (Q E), and at least two outlet channels (14, 16) branching off from the inlet channel, which each extend substantially linearly along an outlet axis (A 1, A 2) and have a channel cross-section (Q A1, Q A2), wherein the outlet axis (A 1) of a first outlet channel and the outlet axis (A 2) of a second outlet channel intersect in a point of intersection, characterized in that a baffle face which is substantially perpendicular with respect to the inlet axis is provided between the outlet channels (14,16), and in that the refrigerant distributor has at least one of the following features: a) the channel cross-section (Q A1) of the first outlet channel differs from the channel cross-section (Q A2) of the second outlet channel, b) the point of intersection of the outlet axes (A 1, A 2) is laterally offset from the inlet axis. a) the channel cross-section (Q A1) of the first outlet channel differs from the channel cross-section (Q A2) of the second outlet channel, b) the point of intersection of the outlet axes (A 1, A 2) is laterally offset from the inlet axis.
A method for processing plastic material in order to print the plastic material, characterized in that at least one surface of the plastic material is coated with a coating mixture that contains a pigment and a binder and an alcohol to provide a coating layer and to increase pore volume to the surface of the plastic material, and the plastic material is selected so as to be able to receive an electrical charge, and the plastic material is charged electrically before coating or after coating, and the plastic material is provided onto a carrier material.
A compound of formula, Wherein: R 1 is selected from -(C 1-6)-alkyl, -(C 5-7)-cycloalkyl, -(C 5-7)-heterocycloalkyl, or -(C 6-10)-aryl; each of which is optionally substituted with one or more groups selected from halogen, hydroxy, NH 2, CH 2 OH and (C 1-4)-alkyl; A 1 is CH 2, CHF or CF 2; P is independently selected from CH or N; Q is independently selected from CH or N; W is independently selected from CH or N; Y is independently selected from CH or N; Z is independently selected from CH or N; A 2 is selected from hydrogen, halogen, -OR 2, -NHR 2, -NHCOR 2, -CN, -CONHR 2, -CON(R 2) 2, -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, -(C 6-10)-aryl and -(C 5-10)-heteroaryl; wherein each of the -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, -(C 6-10)-aryl and -(Cs-io)-heteroaryl is optionally substituted with one or more substituents independently selected from halogen, -OR 2, -O-(C 1-4)-alkyl, -S-(C 1-4)-alkyl, -N(CH 3) 2, -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, halo(C 1-4)-alkyl, -NHR 2, -CN, -CONHR 2, -NHCOR 2, and -CON(R 2) 2; R 2 at each occurrence is independently selected from hydrogen, halogen, -(C 1-6)-alkyl, -(C 3-6)-cycloalkyl or halo(C 1-4)-alkyl; or an isotopic form, a stereoisomer, a tautomer or a pharmaceutically acceptable salt thereof. R 1 is selected from -(C 1-6)-alkyl, -(C 5-7)-cycloalkyl, -(C 5-7)-heterocycloalkyl, or -(C 6-10)-aryl; each of which is optionally substituted with one or more groups selected from halogen, hydroxy, NH 2, CH 2 OH and (C 1-4)-alkyl; A 1 is CH 2, CHF or CF 2; P is independently selected from CH or N; Q is independently selected from CH or N; W is independently selected from CH or N; Y is independently selected from CH or N; Z is independently selected from CH or N; A 2 is selected from hydrogen, halogen, -OR 2, -NHR 2, -NHCOR 2, -CN, -CONHR 2, -CON(R 2) 2, -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, -(C 6-10)-aryl and -(C 5-10)-heteroaryl; wherein each of the -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, -(C 6-10)-aryl and -(Cs-io)-heteroaryl is optionally substituted with one or more substituents independently selected from halogen, -OR 2, -O-(C 1-4)-alkyl, -S-(C 1-4)-alkyl, -N(CH 3) 2, -(C 1-4)-alkyl, -(C 3-6)-cycloalkyl, halo(C 1-4)-alkyl, -NHR 2, -CN, -CONHR 2, -NHCOR 2, and -CON(R 2) 2; R 2 at each occurrence is independently selected from hydrogen, halogen, -(C 1-6)-alkyl, -(C 3-6)-cycloalkyl or halo(C 1-4)-alkyl; or an isotopic form, a stereoisomer, a tautomer or a pharmaceutically acceptable salt thereof.
A method performed by a user equipment, UE, the method comprising: receiving, from a base station, preamble configuration information for a random access, the preamble configuration information including a first root sequence index and a first cyclic shift value; and receiving, from the base station, dedicated preamble configuration information for a beam failure recovery, the dedicated preamble configuration information including one of a second root sequence index and a second cyclic shift value; generating a preamble for the beam failure recovery based on one of: - the first root sequence index and the second cyclic shift value; or - the second root sequence index and the first cyclic shift value; and transmitting the preamble for the beam failure recovery on dedicated time-frequency resources. receiving, from a base station, preamble configuration information for a random access, the preamble configuration information including a first root sequence index and a first cyclic shift value; and receiving, from the base station, dedicated preamble configuration information for a beam failure recovery, the dedicated preamble configuration information including one of a second root sequence index and a second cyclic shift value; generating a preamble for the beam failure recovery based on one of: - the first root sequence index and the second cyclic shift value; or - the second root sequence index and the first cyclic shift value; and - the first root sequence index and the second cyclic shift value; or - the second root sequence index and the first cyclic shift value; and transmitting the preamble for the beam failure recovery on dedicated time-frequency resources.
A fractional-N frequency synthesizer having reduced fractional switching noise and spurious signals, the synthesizer comprising: a voltage controlled oscillator for providing an output signal; a fractional N-divider responsive to the voltage controlled oscillator for providing a divided output signal having fractional switching noise; a phase detector; and a loop filter responsive to the phase detector for filtering the control signal to control the voltage controlled oscillator, the output of the loop filter having reduced fractional switching noise and spurious signals; the fractional N-frequency synthesizer characterized by: a band pass filter located between an output of the divider and the phase detector, the band pass filter having a center frequency at approximately the frequency of a reference signal and responsive to the fractional-N divider for reducing the fractional switching noise and non-linearities that result in spurious signals; and the phase detector responsive to the reference signal and the band pass filter for providing a control signal representative of the phase difference between the reference signal and the signal from the band pass filter. a voltage controlled oscillator for providing an output signal; a fractional N-divider responsive to the voltage controlled oscillator for providing a divided output signal having fractional switching noise; a phase detector; and a loop filter responsive to the phase detector for filtering the control signal to control the voltage controlled oscillator, the output of the loop filter having reduced fractional switching noise and spurious signals; the fractional N-frequency synthesizer characterized by: a band pass filter located between an output of the divider and the phase detector, the band pass filter having a center frequency at approximately the frequency of a reference signal and responsive to the fractional-N divider for reducing the fractional switching noise and non-linearities that result in spurious signals; and the phase detector responsive to the reference signal and the band pass filter for providing a control signal representative of the phase difference between the reference signal and the signal from the band pass filter. a band pass filter located between an output of the divider and the phase detector, the band pass filter having a center frequency at approximately the frequency of a reference signal and responsive to the fractional-N divider for reducing the fractional switching noise and non-linearities that result in spurious signals; and the phase detector responsive to the reference signal and the band pass filter for providing a control signal representative of the phase difference between the reference signal and the signal from the band pass filter.
An internal combustion engine and centrifugal separator assembly, comprising a centrifugal separator for separating contaminants in the form of liquid and/or solid particles from crankcase gas which is produced during operation of the internal combustion engine, the centrifugal separator comprising - a centrifugal rotor with a plurality of separation discs for separating the particles from the crankcase gas, - a rotor housing delimiting a separation space in which the centrifugal rotor is arranged to rotate about a rotational axis (R'), - a gas inlet which is arranged to conduct crankcase gas, which is to be cleaned, to a central part of the centrifugal rotor, - a gas outlet which is arranged to communicate with a part of the separation space surrounding the centrifugal rotor and to conduct cleaned crankcase gas out of the separation space, and - a particle outlet which is arranged to communicate with the part of the separation space surrounding the centrifugal rotor and to drain the separated particles out of the separation space, - wherein a crankcase of the engine is connected to the centrifugal separator, and - wherein the gas inlet is connected to the crankcase, characterized by a collector for the separated particles, wherein the particle outlet is connected to said collector, wherein the collector is configured to communicate with the gas inlet via a connection to provide a pressure difference between the collector and the particle outlet, whereby the separated particles are drawn out of the particle outlet and into the collector during operation of the centrifugal separator, and wherein the collector is connected to the crankcase to drain the collected particles to the crankcase. - a centrifugal rotor with a plurality of separation discs for separating the particles from the crankcase gas, - a rotor housing delimiting a separation space in which the centrifugal rotor is arranged to rotate about a rotational axis (R'), - a gas inlet which is arranged to conduct crankcase gas, which is to be cleaned, to a central part of the centrifugal rotor, - a gas outlet which is arranged to communicate with a part of the separation space surrounding the centrifugal rotor and to conduct cleaned crankcase gas out of the separation space, and - a particle outlet which is arranged to communicate with the part of the separation space surrounding the centrifugal rotor and to drain the separated particles out of the separation space, - wherein a crankcase of the engine is connected to the centrifugal separator, and - wherein the gas inlet is connected to the crankcase,
An upper-end formed glass complex for hot expanding piercing, which is configured to be used as an upper-end lubricant for a hollow billet when the hollow billet inserted in a container is subjected to hot expanding piercing using a plug, characterized in that the formed glass complex comprises a ring-shaped formed glass part and a ring-shaped projecting part; the ring-shaped formed glass part assumes a disc shape having a circular opening for allowing a plug to be inserted at the center thereof; and the ring-shaped projecting part is attached to the opening of the ring-shaped formed glass part, and assumes a ring shape projecting perpendicularly to the ring-shaped formed glass part.
A method for a mobility management for heterogeneous network environment in a wireless communication system including a first Mobility Management Entity, MME, and a second MME, the method comprises: configuring, by the second MME, a connection between the second MME and a plurality of small cells (600, 610, 620) being included in one macro cell, wherein the second MME corresponds to a Micro MME managing the one macro cell, and wherein the first MME corresponds a Macro MME being connected to the second MME so as to manage a plurality of macro cells; and transmitting, by the second MME, a paging message to a small cell in which a user equipment is located, among the plurality of small cells, wherein the paging message is transmitted based on position information respective to the small cell in which the user equipment located. configuring, by the second MME, a connection between the second MME and a plurality of small cells (600, 610, 620) being included in one macro cell, wherein the second MME corresponds to a Micro MME managing the one macro cell, and wherein the first MME corresponds a Macro MME being connected to the second MME so as to manage a plurality of macro cells; and transmitting, by the second MME, a paging message to a small cell in which a user equipment is located, among the plurality of small cells, wherein the paging message is transmitted based on position information respective to the small cell in which the user equipment located.
A non-aqueous pharmaceutical composition in the form of an ointment, a cream, a lotion, a liniment or other spreadable liquid or semi-liquid preparation for dermal use to treat psoriasis in humans and other mammals, said composition comprising a first pharmacologically active component A consisting of calcipotriol or its hydrate and a second pharmacologically active component B consisting of betamethasone or an ester thereof and at least one pharmaceutically acceptable carrier, solvent or diluent, wherein the composition is applied once daily in a medically sufficient dosage.
An information processing apparatus, configured to function as a FIDO client, comprising: a memory configured to store authentication device information indicating an authentication device usable in FIDO authentication using the information processing apparatus; and a processor configured to acquire the authentication device information from an authentication device information management server to present the authentication device information to an administrator, this being information indicating the types of authentication device which can be used in FIDO authentication, cause the memory to store the authentication device information indicating an authentication device that is selected by the administrator as allowed to connect to the information processing apparatus among one or more authentication devices indicated by the authentication device information, and, in response to an authentication start request from a user for FIDO authentication, in a case where an authentication device used by the user is not included in the authentication device indicated by the authentication device information stored in the memory, restrict use of the authentication device used by the user for the FIDO authentication. a memory configured to store authentication device information indicating an authentication device usable in FIDO authentication using the information processing apparatus; and a processor configured to acquire the authentication device information from an authentication device information management server to present the authentication device information to an administrator, this being information indicating the types of authentication device which can be used in FIDO authentication, cause the memory to store the authentication device information indicating an authentication device that is selected by the administrator as allowed to connect to the information processing apparatus among one or more authentication devices indicated by the authentication device information, and, in response to an authentication start request from a user for FIDO authentication, in a case where an authentication device used by the user is not included in the authentication device indicated by the authentication device information stored in the memory, restrict use of the authentication device used by the user for the FIDO authentication.