mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal configured to: • receive (step 301) physical broadcast channel, PBCH, information, containing basic physical layer configuration information of a cell and first specific content, on a PBCH channel from a base station, wherein the basic physical layer configuration information comprises a system frame number, SFN, wherein the first specific content comprises first control information, the first control information including information indicating a time-frequency resource used by the terminal to receive second specific content from the base station, • parse out (step 302) the first specific content from the PBCH information, • parse out (step 303) the first control information from the first specific content, • receive the second specific content from the base station on the time-frequency resource as indicated by the first control information (step 304, step 306), ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, • receive the third specific content on the time-frequency resource, with the coding scheme, and with the redundancy version as indidated by the second specific content (step 309), wherein the third specific content includes narrowband configuration information, and the narrowband configuration information comprises information about a narrowband location. • receive (step 301) physical broadcast channel, PBCH, information, containing basic physical layer configuration information of a cell and first specific content, on a PBCH channel from a base station, wherein the basic physical layer configuration information comprises a system frame number, SFN, wherein the first specific content comprises first control information, the first control information including information indicating a time-frequency resource used by the terminal to receive second specific content from the base station, • parse out (step 302) the first specific content from the PBCH information, • parse out (step 303) the first control information from the first specific content, • receive the second specific content from the base station on the time-frequency resource as indicated by the first control information (step 304, step 306), ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, ∘ wherein the second specific content comprises information indicating a time-frequency resource, a coding scheme and a redundancy version used by the terminal to receive third specific content from the base station, • receive the third specific content on the time-frequency resource, with the coding scheme, and with the redundancy version as indidated by the second specific content (step 309), wherein the third specific content includes narrowband configuration information, and the narrowband configuration information comprises information about a narrowband location.
A power tool arranged to be powered by a battery pack , comprising: a battery support portion defining a battery insertion axis extending from front to back of the power tool and a cavity for receiving a protrusion on a top surface of the battery pack , and a battery latching mechanism including a latch pivotable about a pivot axis transverse to the battery insertion axis and engageable with an engagement surface on a rear end of the protrusion for securing the battery pack to the battery support portion , and a handle coupled for pivoting movement with the latch about the pivot axis ; and wherein the battery support portion includes a rail engageable with a groove defined in the protrusion to prevent removal of the battery pack along an axis transverse to both the battery insertion axis and the pivot axis . a battery support portion defining a battery insertion axis extending from front to back of the power tool and a cavity for receiving a protrusion on a top surface of the battery pack , and a battery latching mechanism including a latch pivotable about a pivot axis transverse to the battery insertion axis and engageable with an engagement surface on a rear end of the protrusion for securing the battery pack to the battery support portion , and a handle coupled for pivoting movement with the latch about the pivot axis ; and a latch pivotable about a pivot axis transverse to the battery insertion axis and engageable with an engagement surface on a rear end of the protrusion for securing the battery pack to the battery support portion , and a handle coupled for pivoting movement with the latch about the pivot axis ; and wherein the battery support portion includes a rail engageable with a groove defined in the protrusion to prevent removal of the battery pack along an axis transverse to both the battery insertion axis and the pivot axis .
Water game device comprising at least one member having a top handle intended for manual gripping thereof and a base on which said handle extends, said base being equipped with at least one sucker intended for attaching said member to an immersed wall of a swimming pool, said device being characterised in that the member is formed by assembling two shells , at least one of which has at least one portion of the base , said shells being arranged so that the fixing to the base of at least one support carrying at least one sucker is ensured during assembly.
Method for estimating friction coefficients of the wheels of a motor vehicle with at least two axles which can be operated independently of each other, comprising the steps of: - defining at least one axle of a motor vehicle as a monitored axle , - defining at least one axle of the motor vehicle which differs from the monitored axle as a compensation axle , - changing at least one wheel torque on the monitored axle , - capturing data in order to estimate current friction coefficients while changing at least one wheel torque on the monitored axle , - simultaneously adapting at least one wheel torque on the compensation axle while changing at least one wheel torque on the monitored axle , - wherein adapting the at least one wheel torque on the compensation axle is performed in such a way that a predetermined total wheel torque is maintained while changing the wheel torque on the monitored axle , - estimating at least one current friction coefficient on the basis of the captured data, characterized in that - changing at least one wheel torque on the monitored axle is performed in steps, wherein the steps (S) comprise horizontal portions (T) on which the wheel torque (R) on the monitored axle is constant. - defining at least one axle of a motor vehicle as a monitored axle , - defining at least one axle of the motor vehicle which differs from the monitored axle as a compensation axle , - changing at least one wheel torque on the monitored axle , - capturing data in order to estimate current friction coefficients while changing at least one wheel torque on the monitored axle , - simultaneously adapting at least one wheel torque on the compensation axle while changing at least one wheel torque on the monitored axle , - wherein adapting the at least one wheel torque on the compensation axle is performed in such a way that a predetermined total wheel torque is maintained while changing the wheel torque on the monitored axle , - estimating at least one current friction coefficient on the basis of the captured data, characterized in that - changing at least one wheel torque on the monitored axle is performed in steps, wherein the steps (S) comprise horizontal portions (T) on which the wheel torque (R) on the monitored axle is constant.
A prefilled injection device for delivering doses of a preservative containing liquid drug comprising: a housing structure permanently securing a non-exchangeable cartridge containing the preservative containing liquid drug, a needle cannula having a distal part and a proximal part and wherein the proximal part connects to the cartridge at least during dose expelling, and the distal part terminates in a distal tip for penetrating the skin of a user, a movable needle shield which is axially movable in relation to the housing structure between a first position and a second position, a cleaning assembly carried by the axially movable needle shield , which cleaning assembly comprises a cleaning chamber containing a volume of the same preservative containing liquid drug as present inside the cartridge and which cleaning chamber is provided with an outlet through which a quantum of the preservative containing liquid drug is escapable, wherein the distal tip of the needle cannula is located inside the cleaning chamber when the axially movable needle shield is in the first position and which distal tip is located distally outside the cleaning chamber when the axially movable needle shield is in the second position, characterized in that the outlet is open rroundings and in that means are provided in the near proximity of the outlet for collecting the escaped quantum of the preservative containing liquid drug. a housing structure permanently securing a non-exchangeable cartridge containing the preservative containing liquid drug, a needle cannula having a distal part and a proximal part and wherein the proximal part connects to the cartridge at least during dose expelling, and the distal part terminates in a distal tip for penetrating the skin of a user, a movable needle shield which is axially movable in relation to the housing structure between a first position and a second position, a cleaning assembly carried by the axially movable needle shield , which cleaning assembly comprises a cleaning chamber containing a volume of the same preservative containing liquid drug as present inside the cartridge and which cleaning chamber is provided with an outlet through which a quantum of the preservative containing liquid drug is escapable, wherein the distal tip of the needle cannula is located inside the cleaning chamber when the axially movable needle shield is in the first position and which distal tip is located distally outside the cleaning chamber when the axially movable needle shield is in the second position, characterized in that the outlet is open rroundings and in that means are provided in the near proximity of the outlet for collecting the escaped quantum of the preservative containing liquid drug.
A chromogenic conjugate comprising: (a) a chromogenic moiety, and (b) a peroxidase substrate moiety, wherein the chromogenic moiety and the peroxidase substrate moiety are linked together via a linker, wherein the linker is a water soluble molecular moiety, and wherein the conjugate is a compound of Formula I: where X is -OH, -OR X or -NR X R XX , where Y is =O or =N + R Y R YY ; wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R X , R xx , R Y , and R YY are independently selected from hydrogen and a substituent having less than 40 atoms; L is a linker comprising a linear chain of 5 to 29 consecutively connected atoms, wherein L is linked to a rhodamine, fluorescein, or rhodamine or fluorescein derivative moiety through an ester or amide linkage; and wherein R 21 is -H, R 22 is -H, -O-X, or -N(X) 2 ; R 23 is -OH; R 21 is -H, -O-X, or -N(X) 2 ; R 25 is - H, -O-X, or -N(X) 2 ; R 21 is -CON-(X)2, -CONH(X), or -COO(X); wherein H is hydrogen; O is oxygen; N is nitrogen; and X is H, alkyl or aryl. (a) a chromogenic moiety, and (b) a peroxidase substrate moiety, wherein the chromogenic moiety and the peroxidase substrate moiety are linked together via a linker, wherein the linker is a water soluble molecular moiety, and wherein the conjugate is a compound of Formula I: where X is -OH, -OR X or -NR X R XX , where Y is =O or =N + R Y R YY ; wherein R 1 , R 2 , R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , R 10 , R X , R xx , R Y , and R YY are independently selected from hydrogen and a substituent having less than 40 atoms; L is a linker comprising a linear chain of 5 to 29 consecutively connected atoms, wherein L is linked to a rhodamine, fluorescein, or rhodamine or fluorescein derivative moiety through an ester or amide linkage; and wherein R 21 is -H, R 22 is -H, -O-X, or -N(X) 2 ; R 23 is -OH; R 21 is -H, -O-X, or -N(X) 2 ; R 25 is - H, -O-X, or -N(X) 2 ; R 21 is -CON-(X)2, -CONH(X), or -COO(X); R 21 is -H, R 22 is -H, -O-X, or -N(X) 2 ; R 23 is -OH; R 21 is -H, -O-X, or -N(X) 2 ; R 25 is - H, -O-X, or -N(X) 2 ; R 21 is -CON-(X)2, -CONH(X), or -COO(X); wherein H is hydrogen; O is oxygen; N is nitrogen; and X is H, alkyl or aryl.
Peptide comprising at least one amino acid sequence which binds to amyloid beta species and in which the negative charge of the carboxyl group normally present at the free C-terminus has been removed by modification so that there is no charge or a positive charge, wherein an acid amide group (CONH2 group) is present at the free C-terminus in place of the carboxyl group, comprising at least one monomer having an amino acid sequence selected from the group consisting of SEQ ID NO: 4, SEQ ID NO: 5 and SEQ ID NO: 6.
Method for producing and/or enlarging a single crystal by heating, evaporating and precipitating a source material in a growth crucible, wherein the source material and the single crystal are arranged inside the growth crucible, wherein a gas chamber is provided in the growth crucible between the source material and the single crystal, wherein the growth crucible has a gas supply line going through the source material, wherein a gas stream into the gas chamber through the gas supply line is regulated, wherein a temperature gradient in the gas chamber is regulated by heating, wherein the gas stream and the temperature gradient are controlled, wherein a convection is determined by the gas stream in terms of direction and strength, wherein material evaporated from the source material is guided by the convection to the single crystal, and wherein the gas stream is redirected through a diffuser so that the convection is preferably regulated by the diffuser such that at least 50% of the transport of material from the source material to the single crystal occurs in a radially external region of the gas chamber. wherein the source material and the single crystal are arranged inside the growth crucible, wherein a gas chamber is provided in the growth crucible between the source material and the single crystal, wherein the growth crucible has a gas supply line going through the source material, wherein a gas stream into the gas chamber through the gas supply line is regulated, wherein a temperature gradient in the gas chamber is regulated by heating, wherein the gas stream and the temperature gradient are controlled, wherein a convection is determined by the gas stream in terms of direction and strength, wherein material evaporated from the source material is guided by the convection to the single crystal, and wherein the gas stream is redirected through a diffuser so that the convection is preferably regulated by the diffuser such that at least 50% of the transport of material from the source material to the single crystal occurs in a radially external region of the gas chamber.
A reagent for examining a water supply for microbial contamination comprising a set of primers comprising a forward nucleotide sequence primer comprising SEQ ID NO: 4 and a reverse nucleotide sequence primer comprising SEQ ID NO: 10, the nucleotide sequences having high specificity for a Legionella microbial species, wherein said nucleotide sequences do not cross-react, or minimally cross- reacts, with a microbial species other than Legionella.
An optical detector sensitive in at least two infrared wavelength ranges called first spectral band (SB1) and second spectral band (SB2), and having a set of pixels, comprising: - an absorbent structure (Sabs) disposed on a bottom face of a substrate (Sub) and comprising a stack of at least one absorbent layer (AL, AL1, AL2) made of semiconductor material, sensitive in the two spectral bands (SB1, SB2) and capable of photo-generating carriers by absorption of an incident beam (IL) on a top face of said substrate, the absorbent structure being further linked to a read-out circuit by at least one set of contacts (CL1, CL2) associated with said pixels, - the detector further comprising a plurality of dielectric resonators (Res) on the top face of said substrate forming a top surface called meta-surface , the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light (IL), a first beam (FL1) having at least one first wavelength (λ1) lying within the first spectral band (SB1) and a second beam (FL2) having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first (FL1) and second (FL2) beams are focused on different pixels of the detector. - an absorbent structure (Sabs) disposed on a bottom face of a substrate (Sub) and comprising a stack of at least one absorbent layer (AL, AL1, AL2) made of semiconductor material, sensitive in the two spectral bands (SB1, SB2) and capable of photo-generating carriers by absorption of an incident beam (IL) on a top face of said substrate, the absorbent structure being further linked to a read-out circuit by at least one set of contacts (CL1, CL2) associated with said pixels, - the detector further comprising a plurality of dielectric resonators (Res) on the top face of said substrate forming a top surface called meta-surface , the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light (IL), a first beam (FL1) having at least one first wavelength (λ1) lying within the first spectral band (SB1) and a second beam (FL2) having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first (FL1) and second (FL2) beams are focused on different pixels of the detector. the meta-surface being configured to diffuse, deflect and focus in the pixels of the detector in a resonant manner, when lit by the incident light (IL), a first beam (FL1) having at least one first wavelength (λ1) lying within the first spectral band (SB1) and a second beam (FL2) having at least one second wavelength (λ2) lying in the second band, the meta-surface being also configured so that said first (FL1) and second (FL2) beams are focused on different pixels of the detector.
Device for the contactlessly determining, i.e. measuring, the body temperature of a free-roaming animal (T), in particular a farm animal (T), in an enclosure or in open land and that does not constantly visit specific feeding places or milking parlours, wherein the device comprises: - a locating unit to initially locate animals to be measured even in a large area such as open land, a pasture or an enclosure, - an animal identification means , - a non-contact temperature sensor for measuring the surface temperature at at least one measuring point on the body of the animal (T), - a sensor vehicle , which supports the temperature sensor , for approaching the animal (T), - an evaluation unit which is connected to the temperature sensor by means of signal technology and detects the surface temperature measured by the temperature sensor , wherein the evaluation unit is designed to assign and store temperature data from a specific measurement to a specific animal, - the temperature sensor comprises at least two sensor elements (20a, b) which are oriented in different directions from the sensor vehicle so that they can measure the surface temperature at different measuring points (6a, b) on the body of the animal (T) or from different directions when the sensor vehicle is in the same position, - the plurality of temperature sensors are designed to be individually controllable with regard to their measuring direction. - a locating unit to initially locate animals to be measured even in a large area such as open land, a pasture or an enclosure, - an animal identification means , - a non-contact temperature sensor for measuring the surface temperature at at least one measuring point on the body of the animal (T), - a sensor vehicle , which supports the temperature sensor , for approaching the animal (T), - an evaluation unit which is connected to the temperature sensor by means of signal technology and detects the surface temperature measured by the temperature sensor , wherein the evaluation unit is designed to assign and store temperature data from a specific measurement to a specific animal, - the temperature sensor comprises at least two sensor elements (20a, b) which are oriented in different directions from the sensor vehicle so that they can measure the surface temperature at different measuring points (6a, b) on the body of the animal (T) or from different directions when the sensor vehicle is in the same position, - the plurality of temperature sensors are designed to be individually controllable with regard to their measuring direction.
An annular combustion system comprising: an inner liner and an outer liner disposed radially outward of the inner liner , the inner liner and the outer liner defining therebetween an annulus circumscribing a centerline of the annular combustion system , the annulus including a plurality of primary combustion zones at an upstream end thereof and a plurality of secondary combustion zones downstream of the primary combustion zones ; a plurality of fuel nozzles , at least one fuel nozzle discharging a combustible mixture into each primary combustion zone of the plurality of primary combustion zones ; a plurality of panel fuel injectors , each panel fuel injector being disposed between adjacent fuel nozzles and extending in an axially downstream direction to separate adjacent primary combustion zones , each panel fuel injector discharging a combustible mixture into at least one secondary combustion zone ; wherein each fuel nozzle of the plurality of fuel nozzles is a bundled tube fuel nozzle extending circumferentially between adjacent panel fuel injectors of the plurality of panel fuel injectors , each bundled tube fuel nozzle comprising: a forward plate ; an aft plate ; an outer shroud extending axially between the forward plate and the aft plate ; a fuel plenum defined within the outer shroud ; and a plurality of premixing tubes extending through the forward plate , the fuel plenum , and the aft plate . an inner liner and an outer liner disposed radially outward of the inner liner , the inner liner and the outer liner defining therebetween an annulus circumscribing a centerline of the annular combustion system , the annulus including a plurality of primary combustion zones at an upstream end thereof and a plurality of secondary combustion zones downstream of the primary combustion zones ; a plurality of fuel nozzles , at least one fuel nozzle discharging a combustible mixture into each primary combustion zone of the plurality of primary combustion zones ; a plurality of panel fuel injectors , each panel fuel injector being disposed between adjacent fuel nozzles and extending in an axially downstream direction to separate adjacent primary combustion zones , each panel fuel injector discharging a combustible mixture into at least one secondary combustion zone ; wherein each fuel nozzle of the plurality of fuel nozzles is a bundled tube fuel nozzle extending circumferentially between adjacent panel fuel injectors of the plurality of panel fuel injectors , each bundled tube fuel nozzle comprising: a forward plate ; an aft plate ; an outer shroud extending axially between the forward plate and the aft plate ; a fuel plenum defined within the outer shroud ; and a plurality of premixing tubes extending through the forward plate , the fuel plenum , and the aft plate . a forward plate ; an aft plate ; an outer shroud extending axially between the forward plate and the aft plate ; a fuel plenum defined within the outer shroud ; and a plurality of premixing tubes extending through the forward plate , the fuel plenum , and the aft plate .