mhurhangee/patent-ind-claim-en huggingface dataset:
Sliding and motorised obstruction device for front opening, comprising: a frame comprising an upper rail and a lower rail intended to be fixed to the facade at the level of the opening to obstruct; an shutter panel carried by a carriage able to cooperate by sliding with the upper rail of the frame between a closed position and an open position of the obstruction device, the panel being guided in the lower rail of the frame by a shoe ; the panel further carrying at least one electric motor coupled to the frame by a pinion-rack connection so as to ensure a motorized movement of the panel between the closed position and the open position of the obstruction device; at least the upper rail and/or the lower rail of the frame supports a straight rack extending horizontally over the entire length of said rail and cooperating with a pinion integral with an output shaft of the electric motor of the panel; and characterised in that the electric motor of the panel is capable of sliding vertically relative to the panel between an operating position in which the pinion is coupled to the rack of the frame and a disengaged position in which the pinion is decoupled from the rack of the frame. a frame comprising an upper rail and a lower rail intended to be fixed to the facade at the level of the opening to obstruct; an shutter panel carried by a carriage able to cooperate by sliding with the upper rail of the frame between a closed position and an open position of the obstruction device, the panel being guided in the lower rail of the frame by a shoe ; the panel further carrying at least one electric motor coupled to the frame by a pinion-rack connection so as to ensure a motorized movement of the panel between the closed position and the open position of the obstruction device; at least the upper rail and/or the lower rail of the frame supports a straight rack extending horizontally over the entire length of said rail and cooperating with a pinion integral with an output shaft of the electric motor of the panel; and characterised in that the electric motor of the panel is capable of sliding vertically relative to the panel between an operating position in which the pinion is coupled to the rack of the frame and a disengaged position in which the pinion is decoupled from the rack of the frame.
A monolithically integrated, tunable semiconductor laser with an optical waveguide, comprising a laser chip having epitaxial layers on a substrate and having first and second reflectors bounding an optical gain section and a passive section , wherein at least one of the reflectors is a distributed Bragg reflector section comprising a grating and configured to have a tunable reflection spectrum, wherein the laser is provided with a common earth electrode that is configured to be electrically grounded in use, wherein control electrodes (706A, 708A n , 710A, 712A) are provided on the optical waveguide in at least the optical gain section and the at least one distributed Bragg reflector section, wherein the passive section is provided with a passive section electrode that electrically contacts the opposite side of the optical waveguide from the substrate, the passive section is configured not to be drivable by an electrical control signal, and no grating is present within the passive section, and wherein the passive section is a grounded passive section in which the passive section electrode is configured to be electrically grounded in use and electrically contacts the passive section, and wherein the passive section electrode and the common earth electrode electrically contact opposite sides of the optical waveguide. first and second reflectors bounding an optical gain section and a passive section ,
A near-field device , comprising: a conductive housing ; a near-field antenna , having a first feed point and a second feed point , and including, a first inductive coil having a first end coupled to the first feed point , a second end coupled to the second feed point , and a connection point at a center point of the first inductive coil ; a conductive plate capacitively coupled to the conductive housing , and coupled to the first end of the first inductive coil ; a tuning circuit coupled to the first and second feed points , and including, a first capacitance bank (C1), a second capacitance bank (C2), a first resistance bank (R1), and a second resistance bank (R2); wherein one end of the first capacitance bank (C1) and the first resistance bank (R1) are coupled to the first feed point and one end of the second capacitance bank (C2) and the second resistance bank (R2) are coupled to the second feed point ; a reference potential ; wherein another end of each of the capacitance banks (C1, C2) and another end of each of the resistance banks (R1, R2) are coupled to the reference potential; wherein the connection point is galvanically coupled to the reference potential ; and wherein the conductive housing is galvanically coupled to the reference potential ; wherein the first inductive coil is configured to receive or transmit near-field magnetic signals; and wherein the conductive plate and the conductive housing are configured to receive or transmit near-field electric signals; and wherein the near-field device includes only one conductive plate . a conductive housing ; a near-field antenna , having a first feed point and a second feed point , and including, a first inductive coil having a first end coupled to the first feed point , a second end coupled to the second feed point , and a connection point at a center point of the first inductive coil ; a conductive plate capacitively coupled to the conductive housing , and coupled to the first end of the first inductive coil ; a tuning circuit coupled to the first and second feed points , and including, a first capacitance bank (C1), a second capacitance bank (C2), a first resistance bank (R1), and a second resistance bank (R2); wherein one end of the first capacitance bank (C1) and the first resistance bank (R1) are coupled to the first feed point and one end of the second capacitance bank (C2) and the second resistance bank (R2) are coupled to the second feed point ; a reference potential ; wherein another end of each of the capacitance banks (C1, C2) and another end of each of the resistance banks (R1, R2) are coupled to the reference potential; wherein the connection point is galvanically coupled to the reference potential ; and wherein the conductive housing is galvanically coupled to the reference potential ; wherein the first inductive coil is configured to receive or transmit near-field magnetic signals; and wherein the conductive plate and the conductive housing are configured to receive or transmit near-field electric signals; and wherein the near-field device includes only one conductive plate .
A cutting tool segment having a longitudinal segment axis (A) extending in a rearward to forward direction (D R , D F ), and comprising: an upper end and a lower end , located on opposite sides of the segment axis (A), the lower end having two spaced apart lower abutment surfaces , an insert retention portion formed in the upper end , at a forward end of the cutting tool segment ; a resilient retention arm formed in the upper end , rearwardly spaced apart from the insert retention portion , the retention arm having an upper abutment surface ; and characterized by comprising a stopper portion located at the forward end of the cutting tool segment , the stopper portion having a rearward facing stopper surface extending transversely to the segment axis (A); wherein in a side view of the cutting tool segment , the upper and lower abutment surfaces are linear and parallel to one another. an upper end and a lower end , located on opposite sides of the segment axis (A), the lower end having two spaced apart lower abutment surfaces , an insert retention portion formed in the upper end , at a forward end of the cutting tool segment ; a resilient retention arm formed in the upper end , rearwardly spaced apart from the insert retention portion , the retention arm having an upper abutment surface ; and characterized by comprising a stopper portion located at the forward end of the cutting tool segment , the stopper portion having a rearward facing stopper surface extending transversely to the segment axis (A); wherein in a side view of the cutting tool segment , the upper and lower abutment surfaces are linear and parallel to one another.
Module of distributed vibration sensing based on backscattered Rayleigh light generated by light pulses , characterized in that the module comprises: - regeneration means adapted to receive light pulses from a first optical fiber segment, condition the light pulses and transmit the light pulses into a second optical fiber segment, and further adapted to receive light pulses from a third optical fiber redundancy segment parallel to the second optical fiber segment, condition the light pulses and transmit the light pulses into a fourth optical fiber redundancy segment parallel to the first optical fiber segment; - detection means adapted to detect the received backscattered Rayleigh light generated at the second optical fiber segment and the fourth optical fiber redundancy segment; - connection means adapted to send sensing information based on the detected backscattered Rayleigh light to a remote server overviewing multiple optical fiber segments. - regeneration means adapted to receive light pulses from a first optical fiber segment, condition the light pulses and transmit the light pulses into a second optical fiber segment, and further adapted to receive light pulses from a third optical fiber redundancy segment parallel to the second optical fiber segment, condition the light pulses and transmit the light pulses into a fourth optical fiber redundancy segment parallel to the first optical fiber segment; receive light pulses from a first optical fiber segment, condition the light pulses and transmit the light pulses into a second optical fiber segment, and further adapted to receive light pulses from a third optical fiber redundancy segment parallel to the second optical fiber segment, condition the light pulses and transmit the light pulses into a fourth optical fiber redundancy segment parallel to the first optical fiber segment; - detection means adapted to detect the received backscattered Rayleigh light generated at the second optical fiber segment and the fourth optical fiber redundancy segment; - connection means adapted to send sensing information based on the detected backscattered Rayleigh light to a remote server overviewing multiple optical fiber segments.
A system with at least one conveying unit and with a code reading device for parallel reading of a plurality of codes on a plurality of objects in the conveying unit , the code reading device comprising a camera unit with at least one camera head for recording an image of the objects with the codes and a control and evaluation unit configured to locate code regions of the codes in the image, to read the code information of the codes and to determine the position of a respective code in the image, characterized in that the conveying unit comprises a plurality of subareas separated from one another by partitions , and in that the control and evaluation unit is furthermore configured to assign the position of a code in the image to a subarea and, in a set-up mode, to teach in the subareas using an image of a conveying unit which is recorded at a fixed position of the conveying unit with respect to the camera unit .
A polyethylene terephthalate composition comprising a copolymer component having at least 3 functional groups in an amount of 0.01 mol% to 1.00 mol% with respect to ethylene terephthalate units, in which the ratio (Mw/Mn) between the weight average molecular weight and number average molecular weight of said polyethylene terephthalate composition determined by the GPC method of the description is 5.0 to 8.0, said polyethylene terephthalate composition also comprising: an alkali metal compound in an amount of 1.0 mol/ton to 3.0 mol/ton of the polyethylene terephthalate composition in terms of alkali metal element; a phosphorus compound in an amount of 1.5 mol/ton to 5.0 mol/ton of the polyethylene terephthalate composition in terms of elemental phosphorus; and an o-chlorophenol insoluble matter in an amount of less than 0.5 wt%.
An information processing apparatus comprising: a photographing information acquisition unit configured to acquire an image at a time of photographing photographed by a camera and a temperature of an illumination light source at the time of photographing, wherein the illumination light source comprises a light emitting diode; and a correction unit configured to correct a brightness of the image at the time of photographing or an exposure time period of the camera on the basis of the temperature of the illumination light source at the time of photographing, the brightness of the image at the time of photographing, and temperature characteristics of the illumination light source , the temperature characteristics having been prepared in advance. a photographing information acquisition unit configured to acquire an image at a time of photographing photographed by a camera and a temperature of an illumination light source at the time of photographing, wherein the illumination light source comprises a light emitting diode; and a correction unit configured to correct a brightness of the image at the time of photographing or an exposure time period of the camera on the basis of the temperature of the illumination light source at the time of photographing, the brightness of the image at the time of photographing, and temperature characteristics of the illumination light source , the temperature characteristics having been prepared in advance.
Method for cooling a food product comprising at least the steps of: - placing the food product to be cooled into a cooling space of a cooling device ; - estimating and/or calculating a cooling time needed to cool the food product from a pre-determined upper temperature limit to a pre-determined lower temperature limit, wherein estimating and/or calculating a cooling time needed to cool the food product comprises: determining and/or measuring an initial product temperature of the food product , estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; - comparing the estimated and/or calculated cooling time with a pre-determined maximum cooling time; and - releasing and/or prompting an alert signal from an alert unit indicating the risk of the cooling time exceeding the pre-determined maximum cooling time if the estimated and/or calculated cooling time is larger than the pre-determined maximum cooling time. - placing the food product to be cooled into a cooling space of a cooling device ; - estimating and/or calculating a cooling time needed to cool the food product from a pre-determined upper temperature limit to a pre-determined lower temperature limit, wherein estimating and/or calculating a cooling time needed to cool the food product comprises: determining and/or measuring an initial product temperature of the food product , estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; determining and/or measuring an initial product temperature of the food product , estimating and/or calculating a time-dependent temperature curve of the product temperature starting from the initial product temperature, and estimating and/or calculating the cooling time from the pre-determined upper temperature limit to the pre-determined lower temperature limit according to the estimated and/or calculated temperature curve; - comparing the estimated and/or calculated cooling time with a pre-determined maximum cooling time; and - releasing and/or prompting an alert signal from an alert unit indicating the risk of the cooling time exceeding the pre-determined maximum cooling time if the estimated and/or calculated cooling time is larger than the pre-determined maximum cooling time.
An oven comprising a body wherein the foodstuffs to be cooked are placed; a casing which surrounds the body ; a water tank which is disposed between the casing and the body and which is filled with water; a pipe with one end opening into the water tank and the other opening into the body and which provides the transfer of water vapor into the body ; and a valve which is disposed on the pipe and which provides the delivery of the water vapor into the body in a controlled manner; wherein the oven comprises a shape memory spring mechanism which enables the valve to open/closed according to the temperature in the body wherein a spacer is placed on the outer wall of the body and whereon the shape memory spring mechanism is disposed, characterized in that the spacer is L-shaped and has a first arm on the body outer wall which contacts the ceiling and a second arm which contacts the body side wall.
An intravascular steering device , comprising: a housing sized and shaped for grasping by a hand of a user, the housing including a proximal portion and a distal portion, wherein the distal portion includes an opening sized and shaped to receive an intravascular device ; a steering controller coupled to the housing ; a processor in communication with the steering controller , the processor configured to translate user control inputs from the steering controller into actuation signals based on a code architecture, wherein the code architecture includes a script for at least one of a return home function, a return to stored position function, an automated mapping function or a store current position function, and wherein the script includes instructions to disable the user control inputs in a period from receipt of a user control input to execute the return home function and until completion of the return home function, or in a period from receipt of a user control input to execute the return to stored position function and until completion of the return to stored position function, or in a period from receipt of a user control input to execute the automated mapping function and until completion of the automated mapping function, respectively; and an actuator positioned within the housing and in communication with the processor such that the actuator receives the actuation signals from the processor, the actuator being configured to interface with the intravascular device based on the actuation signals to the steer the intravascular device . a housing sized and shaped for grasping by a hand of a user, the housing including a proximal portion and a distal portion, wherein the distal portion includes an opening sized and shaped to receive an intravascular device ; a steering controller coupled to the housing ; a processor in communication with the steering controller , the processor configured to translate user control inputs from the steering controller into actuation signals based on a code architecture, wherein the code architecture includes a script for at least one of a return home function, a return to stored position function, an automated mapping function or a store current position function, and wherein the script includes instructions to disable the user control inputs in a period from receipt of a user control input to execute the return home function and until completion of the return home function, or in a period from receipt of a user control input to execute the return to stored position function and until completion of the return to stored position function, or in a period from receipt of a user control input to execute the automated mapping function and until completion of the automated mapping function, respectively; and an actuator positioned within the housing and in communication with the processor such that the actuator receives the actuation signals from the processor, the actuator being configured to interface with the intravascular device based on the actuation signals to the steer the intravascular device .
A method for processing adipose tissue for autologous fat transfer, the method comprising: selecting an adipose tissue comprising adipocytes for implantation; contacting the tissue with a biocompatible detergent at a concentration and time sufficient to remove non-viable materials from the tissue; and rinsing the tissue to remove the detergent, wherein the contacting with the detergent and rinsing are performed under conditions such that the number of viable adipocytes per volume of tissue is increased, and wherein a poloxamer is not used in the contacting step. selecting an adipose tissue comprising adipocytes for implantation; contacting the tissue with a biocompatible detergent at a concentration and time sufficient to remove non-viable materials from the tissue; and rinsing the tissue to remove the detergent, wherein the contacting with the detergent and rinsing are performed under conditions such that the number of viable adipocytes per volume of tissue is increased, and wherein a poloxamer is not used in the contacting step.
Ultrasonic flowmeter comprising: - at least two ultrasonic transducers arranged for transmission and receipt of ultrasonic signals in opposite directions across a measuring distance; - a generator circuit for generating drive signals to the at least two ultrasonic transducers , the generator circuit having a generator output ; - a receiver circuit for receiving signals from the at least two ultrasonic transducers, the receiver circuit having a receiver input and a receiver output ; and - at least two transducer switches (S1, S2) being operable for alternating connection of the ultrasonic transducers to the signal path; wherein the receiver circuit comprises a receiving amplifier positioned between the receiver input and the receiver output, so that the receiver input is connected to the input of the receiving amplifier and the output of the receiving amplifier is connected to the receiver output; characterized in that the generator output being connected to the receiver input by an electric signal path and the input of the receiving amplifier and the output of the receiving amplifier are connected by a feedback connection , the feedback connection comprising a first impedance in series (R2); the feedback connection further comprises at least one parallel connection across the first impedance, the at least one parallel connection comprises a second impedance (R3, 50, 51) and an amplifier switch (S3, 51) in series with the second impedance, the amplifier switch being operable to couple in and out the second impedance so as to change the amplification gain of the receiving circuit where the amplifier switch is configured to be closed during driving of the ultrasonic transducers and to be opened during reception of signals from the ultrasonic transducers. - at least two ultrasonic transducers arranged for transmission and receipt of ultrasonic signals in opposite directions across a measuring distance; - a generator circuit for generating drive signals to the at least two ultrasonic transducers , the generator circuit having a generator output ; - a receiver circuit for receiving signals from the at least two ultrasonic transducers, the receiver circuit having a receiver input and a receiver output ; and - at least two transducer switches (S1, S2) being operable for alternating connection of the ultrasonic transducers to the signal path;