mhurhangee/patent-ind-claim-en huggingface dataset:
A wearable antenna system adapted to be supported by a human body 1 , comprising: a) a base structure ; b) a multiplicity of vertebrae arranged in a stack to define a spine ; c) the spine having an elongated length extending from a base end closer to the base structure to a tip end distal from the base structure ; d) a compression applicator which is configured to apply a compression force on the spine in a direction along the elongated length from the tip end to the base end; e) each vertebra including a superior face and an inferior face which are respectively disposed on opposing ends of a vertebra body defining a vertebra axis; and f) the inferior face of each vertebra having an inferior face profile which is shaped to receive the superior face of an adjacent one of the vertebra when the multiplicity of vertebrae are arranged in the stack; g) wherein the superior face and the inferior face define a vertebra interface which is configured to facilitate a variable deviation in angular alignment of the vertebra axis of each vertebra relative to an adjacent one of the vertebra in the stack when the spine is subjected to a deflecting force h) the antenna system further comprises an antenna feed network coupled to a first antenna element of the antenna system extending along a portion of the elongated length of the spine , the antenna feed network is coupled to a second antenna element of the antenna system, and the first and second antenna elements together form a dipole antenna and the second antenna element is the base structure , 1 See description, paragraph a) a base structure ; b) a multiplicity of vertebrae arranged in a stack to define a spine ; c) the spine having an elongated length extending from a base end closer to the base structure to a tip end distal from the base structure ; d) a compression applicator which is configured to apply a compression force on the spine in a direction along the elongated length from the tip end to the base end; e) each vertebra including a superior face and an inferior face which are respectively disposed on opposing ends of a vertebra body defining a vertebra axis; and f) the inferior face of each vertebra having an inferior face profile which is shaped to receive the superior face of an adjacent one of the vertebra when the multiplicity of vertebrae are arranged in the stack; g) wherein the superior face and the inferior face define a vertebra interface which is configured to facilitate a variable deviation in angular alignment of the vertebra axis of each vertebra relative to an adjacent one of the vertebra in the stack when the spine is subjected to a deflecting force h) the antenna system further comprises an antenna feed network coupled to a first antenna element of the antenna system extending along a portion of the elongated length of the spine , the antenna feed network is coupled to a second antenna element of the antenna system, and the first and second antenna elements together form a dipole antenna and the second antenna element is the base structure ,
Animal bedding comprising: a first part comprising: an upper layer ; and a lower layer ; and a second part ; wherein a first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to attach the first part to the second part ; and wherein a second type of attachment attaches the upper layer to the lower layer , wherein the second type of attachment is of a different type than the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994), wherein the second type of attachment comprises a permanent or non-reversible type of attachment, and wherein the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to reversibly attach the first part to the second part and detach the first part from the second part , characterized in that the second part includes a multi-leveled structure that includes waterproof layers attached to one another to form a cavity contained therein. a first part comprising: an upper layer ; and a lower layer ; and an upper layer ; and a lower layer ; and a second part ; wherein a first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to attach the first part to the second part ; and wherein a second type of attachment attaches the upper layer to the lower layer , wherein the second type of attachment is of a different type than the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994), wherein the second type of attachment comprises a permanent or non-reversible type of attachment, and wherein the first type of attachment (322, 378, 412, 520; 810, 860; 910, 960, 994) is configured to reversibly attach the first part to the second part and detach the first part from the second part , characterized in that the second part includes a multi-leveled structure that includes waterproof layers attached to one another to form a cavity contained therein.
An elastomeric composition comprising an elastomer matrix, a fiber reinforcing said elastomer matrix, and an adhesive composition coating said fiber; the adhesive composition comprising the reaction product of a polyelectrolyte co-curable with the elastomer matrix and a primer material compatible with the fiber and co-curable with the polyelectrolyte, and optionally a curative compatible with the polyelectrolyte and the elastomer matrix, wherein said fiber is carbon fiber, and wherein said primer material is an epoxy resin or epoxy aqueous dispersion.
Method for the production of spectacle temples with an inner core , such as a metal or synthetic material core, wherein the blanks of the spectacle temples are produced ("printed") utilizing an additive production process, such as, for example, selective laser sintering (SLS) employing a synthetic material suitable for this purpose in the form of a powder as the production substrat, wherein during the production process (printing process) of the temple blank an elongated channel is formed (printed jointly) therewithin along the longitudinal axis of the temple blank, wherein the loose powder , remaining conditional of production within the channel during the production process of the same, is removed from the channel and subsequently, after the channel of the temple blank is freed of loose powder , the inner core is inserted, for example injected, into the channel , characterized in that the removal of the loose powder takes place by purging the channel by means of compressed air, wherein for the purging of the channel by means of compressed air a device is deployed onto which is fitted a spout cannula whose outer diameter (r) is less than the inside width (s) of the channel , thus s > r, such that the spout cannula can advance into the channel and the compressed air can be introduced through the spout cannula advancing into the channel and the compressed air during its flow out of the channel entrains the loose powder .
Method for carrying out a construction measure, in particular a foundation engineering measure, with a construction device, in particular with a foundation engineering machine, which has a plurality of actuation elements and sensors for recording operating states relating to the actuation elements, and with a computer unit, by which recorded parameter values of the sensors are received when carrying out the construction measure, wherein for the construction measure a number of different defined process steps are stored in a dynamic list of process steps, wherein in the process each individual process step has one or more assigned transition conditions to one or more different subsequent process steps, wherein from one defined process step to at least one subsequent defined process step a transition takes place as a result of at least one exit rule, wherein to each exit rule at least one characteristic parameter value of at least one sensor is assigned, and wherein the recorded parameter values of the sensors are checked as to the exit rules and, if they occur, a transition from an associated defined process step to a subsequent defined process step is detected. wherein for the construction measure a number of different defined process steps are stored in a dynamic list of process steps, wherein in the process each individual process step has one or more assigned transition conditions to one or more different subsequent process steps, wherein from one defined process step to at least one subsequent defined process step a transition takes place as a result of at least one exit rule, wherein to each exit rule at least one characteristic parameter value of at least one sensor is assigned, and wherein the recorded parameter values of the sensors are checked as to the exit rules and, if they occur, a transition from an associated defined process step to a subsequent defined process step is detected.
An apparatus comprising: a blood pump configured to be placed inside a body of subject, the blood pump comprising: an impeller comprising: proximal and distal bushings ; two or more helical elongate elements that extend from the proximal bushing to the distal bushing ; an axial structure that is disposed inside of the two or more helical elongate elements , and along an axis around which the helical elongate elements wind; and a film of material supported between the helical elongate elements and the axial structure such that each of the helical elongate elements with the film of material coupled thereto defines a respective blade of the impeller ; and an impeller-overexpansion-prevention element , the impeller-overexpansion-prevention element being a single integrated structure comprising a ring disposed around the axial structure , and a plurality of elongate elements , each of the elongate elements extending from the ring to a respective helical elongate element and being coupled to the respective helical elongate element so as to prevent radial expansion of the impeller . an impeller comprising: proximal and distal bushings ; two or more helical elongate elements that extend from the proximal bushing to the distal bushing ; an axial structure that is disposed inside of the two or more helical elongate elements , and along an axis around which the helical elongate elements wind; and a film of material supported between the helical elongate elements and the axial structure such that each of the helical elongate elements with the film of material coupled thereto defines a respective blade of the impeller ; and proximal and distal bushings ; two or more helical elongate elements that extend from the proximal bushing to the distal bushing ; an axial structure that is disposed inside of the two or more helical elongate elements , and along an axis around which the helical elongate elements wind; and a film of material supported between the helical elongate elements and the axial structure such that each of the helical elongate elements with the film of material coupled thereto defines a respective blade of the impeller ; and an impeller-overexpansion-prevention element , the impeller-overexpansion-prevention element being a single integrated structure comprising a ring disposed around the axial structure , and a plurality of elongate elements , each of the elongate elements extending from the ring to a respective helical elongate element and being coupled to the respective helical elongate element so as to prevent radial expansion of the impeller .
A method for interrogating target specimen probe volumes comprising: dividing and shearing an optical source beam to produce a formatted optical beam comprising a first probe beam and a second probe beam, whereby the first probe beam and the second probe beam partially overlap, and wherein the formatted optical beam has a grid array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15) comprising an array of target specimen probe volumes (T1, T2,..., T15) and an array of reference sample probe volumes (R1, R2,..., R15); exposing at least one target specimen probe volume (T1, T2,..., T15) and at least one reference sample probe volume (R1, R2,..., R15) from the grid array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15) to the formatted optical beam, combining the first probe beam and the second probe beam to produce a combined optical beam, and detecting an interference pattern in the combined optical beam by an array of detection devices, wherein the array of individual detection devices corresponds to the array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15). dividing and shearing an optical source beam to produce a formatted optical beam comprising a first probe beam and a second probe beam, whereby the first probe beam and the second probe beam partially overlap, and wherein the formatted optical beam has a grid array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15) comprising an array of target specimen probe volumes (T1, T2,..., T15) and an array of reference sample probe volumes (R1, R2,..., R15); exposing at least one target specimen probe volume (T1, T2,..., T15) and at least one reference sample probe volume (R1, R2,..., R15) from the grid array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15) to the formatted optical beam, combining the first probe beam and the second probe beam to produce a combined optical beam, and detecting an interference pattern in the combined optical beam by an array of detection devices, wherein the array of individual detection devices corresponds to the array of probe volume pairs (T1, T2,..., T15, R1, R2,..., R15).
An extraction apparatus comprising first and second portions , wherein the first portion defines an interior for receiving a portion of a rotary tool element having an axis of rotation, an open end defining a contact face for engagement with and sliding movement over a surface in which a cutting or chasing operation is to be performed, and an opening to receive the rotary tool element , and the second portion is adapted to be attached to the work head of a machine for performing a working operation, wherein said first portion is rotatable relative to the second portion for angular movement between two opposed positions whilst the first and second portions are configured to define a flow path for fluid communication during said angular movement between the two opposed positions whereby fluid can flow from the interior of the first portion into the second portion , and wherein said first portion is rotatable relative to the second portion about said axis of rotation of the rotary tool element . an opening to receive the rotary tool element , and the second portion is adapted to be attached to the work head of a machine for performing a working operation, wherein said first portion is rotatable relative to the second portion for angular movement between two opposed positions whilst the first and second portions are configured to define a flow path for fluid communication during said angular movement between the two opposed positions whereby fluid can flow from the interior of the first portion into the second portion , and wherein said first portion is rotatable relative to the second portion about said axis of rotation of the rotary tool element .
Motor vehicle lock for securing a movable element of a motor vehicle, wherein the motor vehicle lock in the fitted state interacts with a striker in order to secure the movable element , wherein the motor vehicle lock comprises an adjustable catch and an adjustable locking pawl assigned to the catch , wherein the catch is adjustable into a main locking state, in which it is in secure engagement with the striker , and into an opening state, in which it releases the striker , wherein the locking pawl is adjustable into an entry state, in which it engages with the catch at a point of engagement , and holds the catch in the main locking state at the point of engagement , and into a lifted state, in which it releases the catch , characterized in that the motor vehicle lock comprises a tensioning mechanism , in that when the catch is in the main locking state and the locking pawl is in the entry state the tensioning mechanism can be brought into a tensioned state in which the tensioning mechanism introduces a mechanical preload into the catch in its opening direction , and in that the tensioning mechanism can be brought into a relaxed state, in which the preload originating from the tensioning mechanism is reduced or cancelled.
A piping system at least comprising a main pipeline and a side branch pipeline , wherein the side branch pipeline meets the main pipeline at a junction , wherein the side branch pipeline is provided with a perforated plate having a plurality of perforations , wherein the perforated plate has a downstream half and an upstream half relative to the flow direction in the main pipeline , characterised in that the downstream half has less open area than the upstream half , and in that the perforated plate is provided with a protrusion , at the side of the perforated plate facing away from the junction .
A system for automatic user profile generation and authentication, the system comprising: a database storing user profile data for a plurality of users; and an electronic processor communicatively coupled to the database and configured to receive, from a computing device, a first usage indicator for a first user; receive, from the computing device, a first user identifier for the first user; generate a probable user profile based on the first usage indicator and the first user identifier; retrieve, from the database, a plurality of previously-generated user profiles; determine, for each of the plurality of previously-generated user profiles, a confidence score based on the probable user profile; select an active user profile from the plurality of previously-generated user profiles when the confidence score exceeds a confidence threshold; and transmit, to the computing device, the active user profile. a database storing user profile data for a plurality of users; and an electronic processor communicatively coupled to the database and configured to receive, from a computing device, a first usage indicator for a first user; receive, from the computing device, a first user identifier for the first user; generate a probable user profile based on the first usage indicator and the first user identifier; retrieve, from the database, a plurality of previously-generated user profiles; determine, for each of the plurality of previously-generated user profiles, a confidence score based on the probable user profile; select an active user profile from the plurality of previously-generated user profiles when the confidence score exceeds a confidence threshold; and transmit, to the computing device, the active user profile. receive, from a computing device, a first usage indicator for a first user; receive, from the computing device, a first user identifier for the first user; generate a probable user profile based on the first usage indicator and the first user identifier; retrieve, from the database, a plurality of previously-generated user profiles; determine, for each of the plurality of previously-generated user profiles, a confidence score based on the probable user profile; select an active user profile from the plurality of previously-generated user profiles when the confidence score exceeds a confidence threshold; and transmit, to the computing device, the active user profile.
A formulation comprising: (a) a crystalline 3-(2-(5-chloro-1H-pyrrolo[2,3-b]pyridin-3-yl)-5-fluoro-7H-pyrrolo[2,3-d]pyrimidin-7-yl)bicyclo[2.2.2]octane-2-carboxylic acid (Compound 1) or a pharmaceutically acceptable salt thereof having an x-ray powder diffraction (XRPD) pattern exhibiting 2θ values of 5.6, 6.8, 8.4, 10.1, 10.6, 11.3, 15.1, 15.8, 18.0, 18.5, 19.1, 20.4, and 20.9, ± 0.2° (designated "Form B"), wherein the crystalline Compound 1 Form B or salt thereof is present as a micronized crystal form; and (b) a filler, wherein the formulation is adapted as an inhalable formulation. (a) a crystalline 3-(2-(5-chloro-1H-pyrrolo[2,3-b]pyridin-3-yl)-5-fluoro-7H-pyrrolo[2,3-d]pyrimidin-7-yl)bicyclo[2.2.2]octane-2-carboxylic acid (Compound 1) or a pharmaceutically acceptable salt thereof having an x-ray powder diffraction (XRPD) pattern exhibiting 2θ values of 5.6, 6.8, 8.4, 10.1, 10.6, 11.3, 15.1, 15.8, 18.0, 18.5, 19.1, 20.4, and 20.9, ± 0.2° (designated "Form B"), wherein the crystalline Compound 1 Form B or salt thereof is present as a micronized crystal form; and (b) a filler,
Method for controlling a brake system of a vehicle, wherein the brake system has at least one wheel brake per vehicle wheel, wherein sensor means for determining wheel speeds of the vehicle wheels are provided for the wheel brakes, and wherein the brake system is designed to execute brake control functions on the basis of the wheel speeds determined by the sensor means, wherein the method has the following steps: • detecting a failure of the sensor means for at least one of the vehicle wheels, • checking whether a brake control function is being executed by the brake system at the time of the failure, • if a brake control function is being executed by the brake system at the time of the failure, continuing the brake control function and deactivating the brake control function when the execution of the brake control function has been completed, • if no brake control function is being executed by the brake system at the time of the failure, checking whether a brake control function is initiated within a defined period of time after the time of the failure, • if a brake control function is initiated within the defined period of time after the time of the failure, executing the brake control function, and • deactivating the brake control function when the execution of the brake control function has been completed and the period of time has expired or if no brake control function has been initiated within the defined period of time after the time of the failure. • detecting a failure of the sensor means for at least one of the vehicle wheels, • checking whether a brake control function is being executed by the brake system at the time of the failure, • if a brake control function is being executed by the brake system at the time of the failure, continuing the brake control function and deactivating the brake control function when the execution of the brake control function has been completed, • if no brake control function is being executed by the brake system at the time of the failure, checking whether a brake control function is initiated within a defined period of time after the time of the failure, • if a brake control function is initiated within the defined period of time after the time of the failure, executing the brake control function, and • deactivating the brake control function when the execution of the brake control function has been completed and the period of time has expired or if no brake control function has been initiated within the defined period of time after the time of the failure.