mhurhangee/patent-ind-claim-en huggingface dataset:
A movement assistance system for assisting movement of a group including a plurality of users by safely guiding the group, the movement assistance system comprising: a first vehicle and a second vehicle , the first vehicle and the second vehicle being configured to perform assistance control in which the first vehicle and the second vehicle cooperatively assist the movement of the group, the assistance control comprising assisting the movement of the group by the first vehicle traveling in front of the group and the second vehicle traveling behind the group; the movement assistance system being characterized in that the first vehicle and the second vehicle are each configured to perform auto-driving and to perform the assistance control when a current time is within a predetermined time period for the movement of the group, and each comprise an information acquisition device configured to obtain current location information and obtain information about a path of the movement of the group, in that at least one of the first vehicle and the second vehicle includes a detection device configured to detect the group, in that the movement assistance system is configured so that, as the current time enters the predetermined time period, the first vehicle and the second vehicle travel to the path of the movement of the group and perform the assistance control, and in that the movement assistance system is configured to cause the first vehicle to reduce a travel speed of the first vehicle , when a distance between the first vehicle and the second vehicle is greater than a given distance, to allow the rear part of the group to catch up with the front part of the group. a first vehicle and a second vehicle , the first vehicle and the second vehicle being configured to perform assistance control in which the first vehicle and the second vehicle cooperatively assist the movement of the group, the assistance control comprising assisting the movement of the group by the first vehicle traveling in front of the group and the second vehicle traveling behind the group;
Processing unit for a vehicle , wherein the processing unit is set up - to ascertain image data captured by a camera of the vehicle , wherein the image data indicate surroundings of the vehicle proceeding from a reference point ; - to detect at least one object , referred to as camera object , in the surroundings of the vehicle on the basis of the image data; - to ascertain sensor data from a distance-sensing surround sensor of the vehicle , wherein the sensor data indicate a multiplicity of detected points in the surroundings of the vehicle ; characterized in that the processing unit is further set up - to place the camera object at a multiplicity of different distances from the reference point in order to consider different hypotheses in relation to the distance from the camera object to the reference point ; - to ascertain for the multiplicity of different distances a corresponding multiplicity of values of an amount of overlap of the camera object placed at the respective distance with detected points of the sensor data , wherein the value of the amount of overlap indicates how strongly the camera object placed at the respective distance overlaps with detected points of the sensor data ; and - to ascertain an object distance of the camera object from the reference point on the basis of the multiplicity of values of the amount of overlap. - to ascertain image data captured by a camera of the vehicle , wherein the image data indicate surroundings of the vehicle proceeding from a reference point ; - to detect at least one object , referred to as camera object , in the surroundings of the vehicle on the basis of the image data; - to ascertain sensor data from a distance-sensing surround sensor of the vehicle , wherein the sensor data indicate a multiplicity of detected points in the surroundings of the vehicle ; characterized in that the processing unit is further set up - to place the camera object at a multiplicity of different distances from the reference point in order to consider different hypotheses in relation to the distance from the camera object to the reference point ; - to ascertain for the multiplicity of different distances a corresponding multiplicity of values of an amount of overlap of the camera object placed at the respective distance with detected points of the sensor data , wherein the value of the amount of overlap indicates how strongly the camera object placed at the respective distance overlaps with detected points of the sensor data ; and - to ascertain an object distance of the camera object from the reference point on the basis of the multiplicity of values of the amount of overlap.
Container of fluid substances, comprising a body delimiting a cavity to contain the fluid substance, inside the cavity a mobile bottom sealedly movable on the internal wall of the body being present, the body being associated in sealed manner to a collar having at least one resting surface on the body and a tubular member extending from its bottom , the tubular member defining a first passage of the fluid substance during use, within the collar an insert being located, formed by a first and a second part mutually connected by a first breakable portion , inside the insert being located a shutter formed by a first section and a second section mutually connected by a second breakable portion , the second section comprising a surface configured to cooperate with the tubular member to close its first passage when the second section is fitted on the tubular member and a breakable wall of the second section is un-broken, while, when the second section is fitted on the tubular member and the breakable wall is broken, access within the cavity is permitted through the broken breakable wall .
A hoist system for cable-reeling operations, comprising: a housing ; a drum disposed within the housing and configured to spin about an axis; a motor configured to spin the drum about the axis; an electrically-conductive cable configured to be wound and unwound from the drum as the motor spins the drum about the axis; and characterised by : an electrically-grounded sheave configured to guide the electrically-conductive cable through the housing; and an electrical contact sensor configured to detect contact with the electrically-conductive cable. a housing ; a drum disposed within the housing and configured to spin about an axis; a motor configured to spin the drum about the axis; an electrically-conductive cable configured to be wound and unwound from the drum as the motor spins the drum about the axis; and characterised by : an electrically-grounded sheave configured to guide the electrically-conductive cable through the housing; and an electrical contact sensor configured to detect contact with the electrically-conductive cable. an electrically-grounded sheave configured to guide the electrically-conductive cable through the housing; and an electrical contact sensor configured to detect contact with the electrically-conductive cable.
A soluble microneedle , characterized in that the tip diameter of the microneedle being 20 μm or smaller; or the aspect ratio of the microneedle being 1-5, wherein the compressive yield strength of the microneedle is 10 kN/cm 2 or higher.
Method of secured viewing on a screen of an electronic terminal, characterized in that it comprises the following steps: • a step for determining the mode of operation, whether secured or open, of said terminal; • a step for displaying at least one default indicator representing said determined mode of operation of said terminal; • a step for modifying the display of said indicator, said step for modifying display taking account of at least one predetermined action of said user on said terminal, said at least one predetermined action belonging to the group comprising: an entry on a physical keypad; an entry on a touchpad; an entry via a biometric sensor; a voice entry, said steps for determining the mode of operation , displaying and modifying display being controlled by at least one secured processor of said terminal, and in that it comprises, when the terminal is used in open mode to make at least a first and a second entry on said terminal: • a first implementation of said step of modifying the display of said indicator when the user makes said first entry on said terminal; and • a second implementation of said step of modifying the display of said indicator so as to make the indicator even more visible when the user makes said second entry on said terminal. • a step for determining the mode of operation, whether secured or open, of said terminal; • a step for displaying at least one default indicator representing said determined mode of operation of said terminal; • a step for modifying the display of said indicator, said step for modifying display taking account of at least one predetermined action of said user on said terminal, said at least one predetermined action belonging to the group comprising: an entry on a physical keypad; an entry on a touchpad; an entry via a biometric sensor; a voice entry, said steps for determining the mode of operation , displaying and modifying display being controlled by at least one secured processor of said terminal, • a first implementation of said step of modifying the display of said indicator when the user makes said first entry on said terminal; and • a second implementation of said step of modifying the display of said indicator so as to make the indicator even more visible when the user makes said second entry on said terminal.
Pressure-sensitive adhesive which comprises as base polymer at least one or more solid EPDM rubbers and also tackifier resins, the fraction of the tackifier resins being 30 to 130 phr (based on 100 parts by weight of all EPDM polymer components of the pressure-sensitive adhesive), characterized in that the adhesive is plasticizer-free.
A method for configuring a key e-node B, KeNB, by a first eNB associated with a primary cell, PCell, in a communication system, comprising: determining a KeNB which is different from a KeNB used by the first eNB; transmitting , to a second eNB associated with secondary cells, SCells, only, a first message for adding a first SCell of the SCells associated with the second eNB, wherein the first message includes the determined KeNB to be used by the first SCell of the SCells associated with the second eNB; transmitting , to the second eNB, a second message for adding a second SCell of the SCells associated with the second eNB; transmitting , to a terminal, a third message for reconfiguration including configuration information on the first SCell associated with the second eNB; and transmitting , to the terminal, a fourth message for reconfiguration including configuration information on the second SCell associated with the second eNB, wherein a KeNB to be used by the second SCell associated with the second eNB is the same as the determined KeNB to be used by the first SCell associated with the second eNB, wherein each of the third message and the fourth message is a Radio Resource Control, RRC, ConnectionReconfiguration message. determining a KeNB which is different from a KeNB used by the first eNB; transmitting , to a second eNB associated with secondary cells, SCells, only, a first message for adding a first SCell of the SCells associated with the second eNB, wherein the first message includes the determined KeNB to be used by the first SCell of the SCells associated with the second eNB; transmitting , to the second eNB, a second message for adding a second SCell of the SCells associated with the second eNB; transmitting , to a terminal, a third message for reconfiguration including configuration information on the first SCell associated with the second eNB; and transmitting , to the terminal, a fourth message for reconfiguration including configuration information on the second SCell associated with the second eNB, wherein a KeNB to be used by the second SCell associated with the second eNB is the same as the determined KeNB to be used by the first SCell associated with the second eNB, wherein each of the third message and the fourth message is a Radio Resource Control, RRC, ConnectionReconfiguration message.
A multilayer bottle comprising: an outermost layer and an innermost layer; and at least one barrier layer located between the outermost layer and the innermost layer, wherein the outermost layer and the innermost layer are each composed of a polyester (Z1), the barrier layer is composed of a resin composition containing 40 to 99 parts by mass of a polyamide (X) comprising a diamine unit containing 70 mol% or more of a m-xylylenediamine unit and a dicarboxylic acid unit and 1 to 60 parts by mass of a polyester (Z2) provided that a total sum of the polyamide (X) and the polyester (Z2) is 100 parts by mass, an alkali compound (A) is blended in the resin composition, wherein the alkali compound (A) is a single kind or a combination of two or more kinds selected from the group consisting of hydroxides, hydrides, alkoxides, carbonates, hydrogencarbonates, and carboxylates of alkali metals or alkaline earth metals, and the resin composition further satisfies the following formulae to : 0.01 ≤ P ≤ 6.5 3.2 ≤ M ≤ 73.1 M ≥ 29.2 − 0.218 α wherein P represents a molar concentration (μmol/g) of phosphorus atoms contained per gram of the resin composition; M represents a sum of values (μmol/g) obtained by multiplying the molar concentration of alkali metal atoms and the molar concentration of alkaline earth metal atoms, each contained per gram of the resin composition, by valences thereof, respectively; and α represents the parts by mass of the polyamide (X) contained in the resin composition, in the formulae.
A peptide consisting of the amino acid sequence according to SEQ ID No. 9; or a pharmaceutical acceptable salt thereof for use in medicine.
A nebulizer , comprising: a host , comprising a main body , a control module disposed in the main body and a sensor electrically connected with the control module ; and a nozzle tube , comprising a tube , a nozzle and a detecting structure disposed in the tube ; wherein the tube comprises a chamber , the nozzle is arranged on one side of the tube and communicates with the chamber ; the detecting structure comprises a shutter and a swinging member connected with the shutter , and the shutter is disposed corresponding to a position of the sensor ; and air blown from the nozzle flows into the tube to blow the swinging member to drive the shutter to activate the sensor ; characterized in that the detecting structure further comprises a positioning seat combined on the tube ; wherein the swinging member comprises a rotating shaft and at least one blade connected to the rotating shaft ; and the rotating shaft is rotatably disposed on the positioning seat , and the at least one blade protrudes from the positioning seat . a host , comprising a main body , a control module disposed in the main body and a sensor electrically connected with the control module ; and a nozzle tube , comprising a tube , a nozzle and a detecting structure disposed in the tube ; wherein the tube comprises a chamber , the nozzle is arranged on one side of the tube and communicates with the chamber ; the detecting structure comprises a shutter and a swinging member connected with the shutter , and the shutter is disposed corresponding to a position of the sensor ; and air blown from the nozzle flows into the tube to blow the swinging member to drive the shutter to activate the sensor ; characterized in that the detecting structure further comprises a positioning seat combined on the tube ; wherein the swinging member comprises a rotating shaft and at least one blade connected to the rotating shaft ; and the rotating shaft is rotatably disposed on the positioning seat , and the at least one blade protrudes from the positioning seat .
A Fourier transform spectrometer comprising an interferometer comprising a fixed mirror , a movable mirror , a circuit, an electrode and a detector, wherein: the mirrors are positioned parallel to each other and form an optical cavity ; the movable mirror is operable to move relative to the fixed mirror to change the length of the optical cavity; a first mirror of the mirrors is positioned such that light received enters the optical cavity through a back of the first mirror; the detector is positioned and operable to detect light which has exited the optical cavity through a back of the second mirror of the mirrors and output an interferogram; part of the light received is reflected within the interferometer before exiting the optical cavity and takes at least two optical paths within and through the first and second mirrors and through the cavity to the detector; the mirrors are distanced from each other such that the movable mirror is at or can move to a position where the at least two optical paths are of equal length; the movable mirror and electrode positioned at a distance from each other and the circuit connected to the movable mirror and the electrode and operable to apply an electric field between them to move the movable mirror with respect to the fixed mirror; and the electrode is positioned such that the movable mirror lies between the fixed mirror and the electrode.
A system for processing wellbore data, the system comprising: a receiver unit comprising a processor and a memory , wherein the receiver unit is configured to receive a signal from a sensor disposed in a wellbore , wherein a processing application is stored in the memory , and wherein the processing application, when executed on the processor , configures the processor to: receive the signal from the sensor , wherein the signal comprises an indication of an acoustic signal received at one or more depths within the wellbore , wherein the signal is indicative of the acoustic signal across a frequency spectrum; determine a plurality of frequency domain features of the signal across the frequency spectrum, wherein the plurality of frequency domain features comprise at least two different frequency domain features of the signal across the frequency spectrum received from at least one depth of the one or more depths; and generate an output comprising the plurality of frequency domain features. receive the signal from the sensor , wherein the signal comprises an indication of an acoustic signal received at one or more depths within the wellbore , wherein the signal is indicative of the acoustic signal across a frequency spectrum; determine a plurality of frequency domain features of the signal across the frequency spectrum, wherein the plurality of frequency domain features comprise at least two different frequency domain features of the signal across the frequency spectrum received from at least one depth of the one or more depths; and generate an output comprising the plurality of frequency domain features.
An automobile structural member (2; 4) which has a closed transverse section shape constituted with at least a first composing member made of a molded body of a metal sheet and a second composing member (13; 15) made of a metal sheet or a molded body of a metal sheet and joined to the first composing member , the first composing member having a vertical wall portion , a bent portion connected to the vertical wall portion and bent toward an inner side of the closed transverse section shape, and an inward flange connected to the bent portion , the automobile structural member (2; 4) comprising: a load transmission portion which is formed in at least a part of a region being a region between the bent portion and the second composing member (13; 15) and being a region of an extension of the vertical wall portion toward the second composing member (13; 15), and which joins the bent portion and the second composing member (13; 15), wherein when a width of the load transmission portion toward a plate thickness direction of the vertical wall portion is indicated as WT and a plate thickness of the vertical wall portion is indicated as t 0.3 t ≦ WT ≦ 1.0 t is satisfied, wherein the load transmission portion is a part of a joining portion filling a space formed between the bent portion and the second composing member (13; 15), wherein in the joining portion a joining width being a range in contact with the second composing member (13; 15) is longer than a width of the load transmission portion , and wherein the joining portion is formed to be broadened toward the second composing member (13; 15) and joined to the first composing member and the second composing member (13; 15). a load transmission portion which is formed in at least a part of a region being a region between the bent portion and the second composing member (13; 15) and being a region of an extension of the vertical wall portion toward the second composing member (13; 15), and which joins the bent portion and the second composing member (13; 15), wherein when a width of the load transmission portion toward a plate thickness direction of the vertical wall portion is indicated as WT and a plate thickness of the vertical wall portion is indicated as t 0.3 t ≦ WT ≦ 1.0 t is satisfied, wherein the load transmission portion is a part of a joining portion filling a space formed between the bent portion and the second composing member (13; 15), wherein in the joining portion a joining width being a range in contact with the second composing member (13; 15) is longer than a width of the load transmission portion , and wherein the joining portion is formed to be broadened toward the second composing member (13; 15) and joined to the first composing member and the second composing member (13; 15).
An automotive lighting unit comprising: a substantially basin-shaped, rear body ; a front half-shell placed in front of the mouth of the rear body ; and at least one lighting assembly that emits light on command, and is located inside the rear body so as to be able to backlight a corresponding transparent or semi-transparent portion of the front half-shell ; the lighting assembly comprising at least one light-guide body made of photoconductive material, which is placed inside the rear body and is structured to channel, by total internal reflection and towards said transparent or semi-transparent portion of the front half-shell , the light that enters in the same light-guide body through a light-incoupling end or sidewall of the same light-guide body ; the automotive lighting unit being characterised in that the lighting assembly additionally comprises: an active light deflector device which is placed inside the rear body , facing the light-incoupling end or sidewall of said light-guide body ; and an electrically-powered light source which is placed inside the rear body and emits, on command, a collimated light beam (r, l) towards the active light deflector device ; the active light deflector device including a MOEMS device and a control electronics adapted to drive said MOEMS device , and being adapted to reflect/divert said collimated light beam (r, l) towards the light-incoupling end or sidewall of said light-guide body , so that the collimated light beam (r, l) can enter into the light-guide body and then travel inside the light-guide body by total internal reflection.