mhurhangee/patent-ind-claim-en huggingface dataset:
A braking system adapted to a road motor vehicle, configured in trailer mode or in tractor mode, for the purpose of actuating brake members for braking the vehicle that are associated with the wheels of said vehicle, said system comprising control members for controlling operation of it and a manual braking hydraulic circuit , said braking system being characterised in that it further comprises an additional hydraulic circuit equipping the same vehicle and electrically controlled, the control members comprising an electrical braking automated logic controller for generating main or additional braking setpoints, which are transmitted to the additional hydraulic circuit .
A loudspeaker (100;200) comprising: an acoustic enclosure ; an electro-acoustic transducer (110;112) supported by the acoustic enclosure; a grille covering the electro-acoustic transducer; a water-resistant member disposed between the acoustic enclosure and the grille; and a spring member disposed between the water-resistant member and the acoustic enclosure, wherein the spring member is configured to apply a compressive force along a rear surface of the water-resistant member, thereby to hold a front surface of the water-resistant member in close contact with a rear surface of the grille, so as to provide prolonged protection against sagging of the water-resistant member. an acoustic enclosure ; an electro-acoustic transducer (110;112) supported by the acoustic enclosure; a grille covering the electro-acoustic transducer; a water-resistant member disposed between the acoustic enclosure and the grille; and a spring member disposed between the water-resistant member and the acoustic enclosure, wherein the spring member is configured to apply a compressive force along a rear surface of the water-resistant member, thereby to hold a front surface of the water-resistant member in close contact with a rear surface of the grille, so as to provide prolonged protection against sagging of the water-resistant member.
Thermal conditioning device for thermally conditioning preforms , comprising at least one heating module provided with: - an enclosure defining at least one transport volume for said preforms ; - at least one heating means oriented toward the transport volume ; - at least one cooling means oriented toward the transport volume ; - at least one control means for controlling at least said heating means and said cooling means ; said cooling means comprising: - at least one circulating means for circulating a flow of air with a nominal flow rate; said nominal flow rate being determined by said control means of said at least one circulating means ; - at least one channel extending from said circulating means as far as said enclosure and leading toward said transport volume ; characterized in that it comprises at least: - along said channel , at least one measuring means for measuring at least one component of the actual flow rate of said air flow; - an adjusting means for adjusting said nominal flow rate with respect to said actual flow rate, by controlling the control means of said circulating means . at least one heating module provided with: - an enclosure defining at least one transport volume for said preforms ; - at least one heating means oriented toward the transport volume ; - at least one cooling means oriented toward the transport volume ; - at least one control means for controlling at least said heating means and said cooling means ; - an enclosure defining at least one transport volume for said preforms ; - at least one heating means oriented toward the transport volume ; - at least one cooling means oriented toward the transport volume ; - at least one control means for controlling at least said heating means and said cooling means ; said cooling means comprising: - at least one circulating means for circulating a flow of air with a nominal flow rate; - at least one circulating means for circulating a flow of air with a nominal flow rate; said nominal flow rate being determined by said control means of said at least one circulating means ; - at least one channel extending from said circulating means as far as said enclosure and leading toward said transport volume ; - at least one channel extending from said circulating means as far as said enclosure and leading toward said transport volume ; characterized in that it comprises at least: - along said channel , at least one measuring means for measuring at least one component of the actual flow rate of said air flow; - an adjusting means for adjusting said nominal flow rate with respect to said actual flow rate, by controlling the control means of said circulating means . - along said channel , at least one measuring means for measuring at least one component of the actual flow rate of said air flow; - an adjusting means for adjusting said nominal flow rate with respect to said actual flow rate, by controlling the control means of said circulating means .
An optical assembly comprising an optical instrument (OI) and a device for passively reducing pollution of an optical access of said optical instrument located in a polluting environment , characterised in that the device for passively reducing pollution includes a part provided with: - a channel provided in said part and having a first end open outwardly of the part so as to lead into the polluting environment , said channel having a substantially rectilinear axis (X-X) and a mean general diameter d ; and - a cavity provided in said part at a second end of the channel , opposite to said first end , said second end of the channel leading into the cavity , said cavity having an open end opposite to said second end of the channel , said cavity having a mean general diameter D, the ratio of the mean general diameter D to the mean general diameter d being greater than or equal to: 2, the assembly being configured to receive a radiation (R) from upstream to downstream from the polluting environment along a penetration direction and the optical instrument (OI) being arranged downstream of the part and facing the open end of the cavity to receive the radiation (R) which passes from upstream to downstream through the channel and the cavity by penetrating the part from the first end of the channel and coming out of the part by the open end of the cavity . - a channel provided in said part and having a first end open outwardly of the part so as to lead into the polluting environment , said channel having a substantially rectilinear axis (X-X) and a mean general diameter d ; and - a cavity provided in said part at a second end of the channel , opposite to said first end , said second end of the channel leading into the cavity , said cavity having an open end opposite to said second end of the channel , said cavity having a mean general diameter D, the ratio of the mean general diameter D to the mean general diameter d being greater than or equal to: 2,
An information presentation apparatus , comprising: an actuator that includes a movable portion and is capable of linearly driving the movable portion; a control unit that controls the actuator so that the movable portion is driven corresponding to waveform information; and a belt for attaching the actuator to a user; wherein an end portion of the belt is fixed to the movable portion, wherein a length of a portion of the belt is changed by driving of the movable portion in a forward or backward direction, the portion being wrapped around the user, wherein the information presentation apparatus comprises a communication unit that acquires setting information through communication, and characterized by the setting information including at least stimulation-type information for identifying a kind of the tactile stimulation, wherein the control unit is configured to generate the waveform information on the basis of the stimulation-type information included in the acquired setting information, wherein the setting information further includes temporal setting information, and wherein the control unit is configured to generate a timing of driving the movable portion on the basis of the temporal setting information included in the acquired setting information. an actuator that includes a movable portion and is capable of linearly driving the movable portion; a control unit that controls the actuator so that the movable portion is driven corresponding to waveform information; and a belt for attaching the actuator to a user; wherein an end portion of the belt is fixed to the movable portion, wherein a length of a portion of the belt is changed by driving of the movable portion in a forward or backward direction, the portion being wrapped around the user, wherein the information presentation apparatus comprises a communication unit that acquires setting information through communication, and characterized by the setting information including at least stimulation-type information for identifying a kind of the tactile stimulation, wherein the control unit is configured to generate the waveform information on the basis of the stimulation-type information included in the acquired setting information, wherein the setting information further includes temporal setting information, and wherein the control unit is configured to generate a timing of driving the movable portion on the basis of the temporal setting information included in the acquired setting information.
A method for field authentication of a seafood sample , comprising: (a) providing a portable NIR spectrometer , wherein the portable NIR spectrometer comprises a light source for illuminating the seafood sample ; an optical element for guiding diffusely reflected light ; a laterally variable filter for separating the reflected light into individual wavelengths; and a photodetector array for detecting optical power levels of the individual wavelengths, wherein the laterally variable filter is encapsulated by an opaque epoxy for facilitating removal of stray light and protecting the laterally variable filter from humidity; (b) obtaining a reflection spectrum of the seafood sample using the portable NIR spectrometer of step (a); (c) performing a multivariate pattern recognition analysis of the reflection spectrum of the seafood sample obtained in step (b) to determine a matching spectrum with a most similar spectral pattern by comparing the reflection spectrum to a library of known identity spectra corresponding to different species of seafood; and (d) identifying a species of seafood that the seafood sample belongs to based on the matching spectrum bearing the most similar spectral pattern determined in step (c). (a) providing a portable NIR spectrometer , wherein the portable NIR spectrometer comprises a light source for illuminating the seafood sample ; an optical element for guiding diffusely reflected light ; a laterally variable filter for separating the reflected light into individual wavelengths; and a photodetector array for detecting optical power levels of the individual wavelengths, wherein the laterally variable filter is encapsulated by an opaque epoxy for facilitating removal of stray light and protecting the laterally variable filter from humidity; (b) obtaining a reflection spectrum of the seafood sample using the portable NIR spectrometer of step (a); (c) performing a multivariate pattern recognition analysis of the reflection spectrum of the seafood sample obtained in step (b) to determine a matching spectrum with a most similar spectral pattern by comparing the reflection spectrum to a library of known identity spectra corresponding to different species of seafood; and (d) identifying a species of seafood that the seafood sample belongs to based on the matching spectrum bearing the most similar spectral pattern determined in step (c).
A bullet comprising a retaining element and a penetrator , wherein the penetrator is received at least partially in a receiving opening , extending centrally relative to the bullet axis (A), of the retaining element , and has a penetrator front and a penetrator rear , and wherein the penetrator rear is formed in a cylindrical manner and the penetrator front is formed in a manner tapering conically toward the bullet axis (A) starting from the penetrator rear in the direction of a penetrator tip , wherein the retaining element has a retaining element rear , a retaining element middle , and a retaining element front , wherein the retaining element front , the retaining element middle , and at least regionally also the retaining element rear are encased by a casing , characterized in that the length (LPF) of the penetrator front is in a length ratio of about 1 to 1, preferably about 1 to 1.5, particularly preferably about 1 to 2.2, with respect to the length (LPH) of the penetrator rear , and in that the casing encloses an air space with the retaining element rear in the region of the retaining element rear . wherein the penetrator is received at least partially in a receiving opening , extending centrally relative to the bullet axis (A), of the retaining element , and has a penetrator front and a penetrator rear , and wherein the penetrator rear is formed in a cylindrical manner and the penetrator front is formed in a manner tapering conically toward the bullet axis (A) starting from the penetrator rear in the direction of a penetrator tip , wherein the retaining element has a retaining element rear , a retaining element middle , and a retaining element front , wherein the retaining element front , the retaining element middle , and at least regionally also the retaining element rear are encased by a casing , characterized in that the length (LPF) of the penetrator front is in a length ratio of about 1 to 1, preferably about 1 to 1.5, particularly preferably about 1 to 2.2, with respect to the length (LPH) of the penetrator rear , and in that the casing encloses an air space with the retaining element rear in the region of the retaining element rear .
A probe head (12; 112; 312) of an air data probe , the probe head comprising: a unitary body (22; 122; 322) extending from a first end (18; 118; 318) to a second end (20; 120; 320) of the probe head, the body comprising: an inlet (28; 128; 328) adjacent the first end of the probe head; an air passageway (30; 130; 330) extending through the body from the inlet to the second end of the probe head; characterized by a water dam (32; 132; 332) extending radially through the body such that the air passageway is redirected around the water dam; and a plurality of heater bores (34; 134A, 134B; 334A, 334B) extending within the body; and a plurality of rod heaters (24; 124A, 124B; 324A, 324B), , each heater rod being positioned in a heater bore. a unitary body (22; 122; 322) extending from a first end (18; 118; 318) to a second end (20; 120; 320) of the probe head, the body comprising: an inlet (28; 128; 328) adjacent the first end of the probe head; an air passageway (30; 130; 330) extending through the body from the inlet to the second end of the probe head; characterized by a water dam (32; 132; 332) extending radially through the body such that the air passageway is redirected around the water dam; and a plurality of heater bores (34; 134A, 134B; 334A, 334B) extending within the body; and an inlet (28; 128; 328) adjacent the first end of the probe head; an air passageway (30; 130; 330) extending through the body from the inlet to the second end of the probe head; characterized by a water dam (32; 132; 332) extending radially through the body such that the air passageway is redirected around the water dam; and a plurality of heater bores (34; 134A, 134B; 334A, 334B) extending within the body; and a plurality of rod heaters (24; 124A, 124B; 324A, 324B), , each heater rod being positioned in a heater bore.
A method for wireless communication by a user equipment, UE, comprising: receiving (1405; 1605) a configuration for uplink transmissions, the configuration comprising a resource grant for respective transmission time intervals, TTIs, designated for the uplink transmissions, wherein the configuration comprises a periodicity for the respective TTIs, the respective TTIs being designated for semi-persistent scheduling, SPS, transmissions; identifying (1410; 1610) a first TTI in accordance with the configuration, the first TTI having a first duration; identifying (1415; 1615), within the first TTI, a location of a second TTI in accordance with the configuration, the second TTI having a second duration that is shorter than the first duration; transmitting uplink data during the first TTI or the second TTI based at least in part on the in the received configuration; determining a priority for retransmissions based at least in part on the received configuration, wherein determining the priority comprises determining a highest priority for retransmissions during second TTIs having the second duration; identifying a collision between concurrent uplink transmissions, the concurrent uplink transmissions comprising a retransmission of the uplink data during the second TTI and a second uplink data transmission during a third TTI; and dropping the second uplink data transmission based at least in part on the priority determined for the retransmission. receiving (1405; 1605) a configuration for uplink transmissions, the configuration comprising a resource grant for respective transmission time intervals, TTIs, designated for the uplink transmissions, wherein the configuration comprises a periodicity for the respective TTIs, the respective TTIs being designated for semi-persistent scheduling, SPS, transmissions; identifying (1410; 1610) a first TTI in accordance with the configuration, the first TTI having a first duration; identifying (1415; 1615), within the first TTI, a location of a second TTI in accordance with the configuration, the second TTI having a second duration that is shorter than the first duration; transmitting uplink data during the first TTI or the second TTI based at least in part on the in the received configuration; determining a priority for retransmissions based at least in part on the received configuration, wherein determining the priority comprises determining a highest priority for retransmissions during second TTIs having the second duration; identifying a collision between concurrent uplink transmissions, the concurrent uplink transmissions comprising a retransmission of the uplink data during the second TTI and a second uplink data transmission during a third TTI; and dropping the second uplink data transmission based at least in part on the priority determined for the retransmission.
A load measuring device for measuring a pressing load applied by a mounting head to a component in a mounter having the mounting head that applies a pressing force when mounting the component on a board, the load measuring device being configured to be conveyed by a conveyor of the mounter in place of the board, the load measuring device comprising: a body ; a start command section provided on the body , the start command section being configured to issue a start command based on a start instruction from the mounter ; and a load acquiring section configured to acquire a pressing load applied by the mounting head onto the load acquiring section in accordance with the start command from the start command section . a body ; a start command section provided on the body , the start command section being configured to issue a start command based on a start instruction from the mounter ; and a load acquiring section configured to acquire a pressing load applied by the mounting head onto the load acquiring section in accordance with the start command from the start command section .
A delivery system for a fixation device, comprising: a guide catheter comprising a proximal end portion having a proximal end port , a distal end portion having a distal end port , and an inner surface defining an inner lumen extending in fluid communication between the proximal end port and the distal end port; a delivery catheter extending through the inner lumen of the guide catheter to define an annular space between an outer surface of the delivery catheter and the inner surface of the guide catheter ; and a pressure sensor proximate the proximal end portion of the guide catheter in fluid communication with the annular space to monitor fluid pressure within the annular space , wherein the distal end portion of the guide catheter includes a distal tip member having the distal end port defined therein; the system is characterized in that the distal tip member comprises a plurality flow passages in fluid communication between an exterior of the distal end portion of the guide catheter and the annular space , the plurality of flow passages comprising a number of flow channels defined in the distal tip member and spaced about a perimeter of the distal end port . a guide catheter comprising a proximal end portion having a proximal end port , a distal end portion having a distal end port , and an inner surface defining an inner lumen extending in fluid communication between the proximal end port and the distal end port; a delivery catheter extending through the inner lumen of the guide catheter to define an annular space between an outer surface of the delivery catheter and the inner surface of the guide catheter ; and a pressure sensor proximate the proximal end portion of the guide catheter in fluid communication with the annular space to monitor fluid pressure within the annular space , wherein the distal end portion of the guide catheter includes a distal tip member having the distal end port defined therein; the system is characterized in that the distal tip member comprises a plurality flow passages in fluid communication between an exterior of the distal end portion of the guide catheter and the annular space , the plurality of flow passages comprising a number of flow channels defined in the distal tip member and spaced about a perimeter of the distal end port .
Container having a body which has an opening, and having a lid which is associated with the opening and which is mounted on the body of the container in a bearing so as to be pivotable about a pivot axis lying adjacent to the opening, wherein the bearing comprises bearing eyes and bearing journals provided on the lid , wherein the bearing journals are inserted through the bearing eyes from both sides into a tube arranged on the body of the container via several arms , wherein friction-generating formations are provided on mutually facing surfaces of the parts of the bearing of the lid on the body of the container , wherein the friction-generating formations comprise elevation-forming peaks and depression-forming valleys on annular surfaces , wherein depression-forming valleys are provided between elevation-forming peaks of the annular surfaces , wherein the annular surfaces are aligned perpendicularly to the pivot axis of the lid and are corrugated by the elevation-forming peaks and the depression-forming valleys , and wherein friction-generating, elevation-forming peaks of the annular surfaces lie against each other when the lid is closed, characterized in that the annular surfaces are formed directly on the bearing eyes of the lid and the further annular surfaces are formed directly on flanges , wherein the flanges are provided on the arms by means of which the tube is arranged on the body of the container , and in that in the position of the lid , in which the lid is completely opened and hangs downwards next to the container in the region of the tube of the bearing of the lid , the elevation-forming peaks of the annular surfaces abut one another.
A steel for a mold, having a composition comprising, in mass %: 0.045 ≤ C ≤ 0.090 , 0.01 ≤ Si ≤ 0.50 , 0.10 ≤ Mn ≤ 0.60 , 0.80 ≤ Ni ≤ 1.10 , 6.60 ≤ Cr ≤ 8.60 , 0.01 ≤ Mo ≤ 0.70 , 0.001 ≤ V ≤ 0.200 , 0.007 ≤ Al ≤ 0.150 , and 0.0002 ≤ N ≤ 0.0500 , and optionally Cu ≤ 1.50 , W ≤ 4.00 , Co ≤ 3.00 , Nb ≤ 0.200 , Ta ≤ 0.200 , Ti ≤ 0.200 , Zr ≤ 0.200 , B ≤ 0.0050 , S ≤ 0.050 , Ca ≤ 0.2000 , Se ≤ 0.50 , Te ≤ 0.100 , Bi ≤ 0.50 , and Pb ≤ 0.50 , with the balance being Fe and unavoidable impurities.