mhurhangee/patent-ind-claim-en huggingface dataset:
Lamp , preferably a spot lamp, comprising: - a first lamp body having a first rotation axis portion , and - a second lamp body having a second rotation axis portion , wherein the first rotation axis portion and the second rotation axis portion are connected to one another such that they can rotate about an axis of rotation (A), and wherein the first rotation axis portion and the second rotation axis portion overlap axially with respect to the axis of rotation (A) in a rotating portion (S), - a sealing means , wherein the sealing means is disposed in the rotating portion (S) radially between and in sealing abutment with the first rotation axis portion and the second rotation axis portion , - a retaining means , characterized in that the retaining means rotatably connects the first lamp body and the second lamp body such that the sealing abutment is maintained regardless of a rotational position of the lamp bodies relative to one another, and so that the retaining means does not have to be released to adjust the rotational position of the lamp bodies relative to one another. - a first lamp body having a first rotation axis portion , and - a second lamp body having a second rotation axis portion , wherein the first rotation axis portion and the second rotation axis portion are connected to one another such that they can rotate about an axis of rotation (A), and wherein the first rotation axis portion and the second rotation axis portion overlap axially with respect to the axis of rotation (A) in a rotating portion (S), wherein the first rotation axis portion and the second rotation axis portion are connected to one another such that they can rotate about an axis of rotation (A), and wherein the first rotation axis portion and the second rotation axis portion overlap axially with respect to the axis of rotation (A) in a rotating portion (S), - a sealing means , wherein the sealing means is disposed in the rotating portion (S) radially between and in sealing abutment with the first rotation axis portion and the second rotation axis portion , - a retaining means , characterized in that the retaining means rotatably connects the first lamp body and the second lamp body such that the sealing abutment is maintained regardless of a rotational position of the lamp bodies relative to one another, and so that the retaining means does not have to be released to adjust the rotational position of the lamp bodies relative to one another.
A crop conditioning device for an agricultural harvesting machine , comprising: a frame ; a first conditioning roll connected to the frame; a second conditioning roll pivotally connected to the frame such that the second conditioning roll is movable relative to the first conditioning roll , the second conditioning roll being located at a distance away from the first conditioning roll for defining a roll gap (RG) in between the first conditioning roll and the second conditioning roll , the second conditioning roll comprising a pair of lateral ends ; a tension member operably connected to the second conditioning roll , the tension member being configured for applying a tension force on the second conditioning roll ; a tension actuator operably connected to the tension member , the tension actuator being configured for adjusting the tension force applied by the tension member ; the crop conditioning device being characterized by the tension member being an elongated tension member being substantially parallel to the second conditioning roll ; a pair of control rods respectively connected to the pair of lateral ends of the second conditioning roll ; and a pair of roll-gap actuators respectively and operably connected to the pair of control rods , the pair of roll-gap actuators being configured for pivoting the second conditioning roll to adjust the roll gap (RG). a frame ; a first conditioning roll connected to the frame; a second conditioning roll pivotally connected to the frame such that the second conditioning roll is movable relative to the first conditioning roll , the second conditioning roll being located at a distance away from the first conditioning roll for defining a roll gap (RG) in between the first conditioning roll and the second conditioning roll , the second conditioning roll comprising a pair of lateral ends ; a tension member operably connected to the second conditioning roll , the tension member being configured for applying a tension force on the second conditioning roll ; a tension actuator operably connected to the tension member , the tension actuator being configured for adjusting the tension force applied by the tension member ; the crop conditioning device being characterized by the tension member being an elongated tension member being substantially parallel to the second conditioning roll ; a pair of control rods respectively connected to the pair of lateral ends of the second conditioning roll ; and a pair of roll-gap actuators respectively and operably connected to the pair of control rods , the pair of roll-gap actuators being configured for pivoting the second conditioning roll to adjust the roll gap (RG).
A method for interpolating seismic data obtained from a marine seismic survey using a programmable computer programmed to at least perform the operations of: receiving pressure wavefield samples of a pressure wavefield measured with a pressure sensor at a sample rate; characterized by receiving acceleration wavefield samples of an acceleration wavefield measured with a MEMS accelerometer at the sample rate, the MEMS accelerometer collocated with the pressure sensor in a streamer; and interpolating a pressure wavefield in the time domain based on the pressure wavefield samples and the acceleration wavefield samples, wherein the sample rate is less than a Nyquist rate of the pressure wavefield and is greater than half the Nyquist rate. receiving pressure wavefield samples of a pressure wavefield measured with a pressure sensor at a sample rate; characterized by receiving acceleration wavefield samples of an acceleration wavefield measured with a MEMS accelerometer at the sample rate, the MEMS accelerometer collocated with the pressure sensor in a streamer; and interpolating a pressure wavefield in the time domain based on the pressure wavefield samples and the acceleration wavefield samples, wherein the sample rate is less than a Nyquist rate of the pressure wavefield and is greater than half the Nyquist rate.
A β,β-intramolecularly-crosslinked polyoxyalkylene oxide hemoglobin conjugate having a P50 ranging from about 2 to 5 mmHg as measured at 37 °C and pH 7.4, wherein the hemoglobin conjugate when fully deoxygenated at 25 °C exhibits a maximal nitrite reductase activity that is at least 10-fold greater than that of deoxygenated stroma-free hemoglobin when measured under the same conditions.
A pump membrane for conveying fluids comprising a solid core with a connection means for a drive rod of the diaphragm pump and a plate-shaped, elastic diaphragm body made of rubber with a peripheral clamping edge , wherein the solid core is at least partially embedded in the diaphragm body , characterised in that the solid core is produced from a thermoplastic and forms covalent bonds with the elastic diaphragm body made of rubber without adhesive.
A navigation method for a Mars capture phase of a probe based on a combination of a celestial velocity measurement performed by the probe and a ground radio measurement performed by a ground station, wherein a combined observation equation is established from the celestial velocity measurement and the ground radio measurement, and a deep space dynamics equation of the probe is established, and a navigation result is obtained by using an extended Kalman filter operating on the combined observation equation and the deep space dynamics equation, characterized in that N days before reaching Mars periareon, the navigation observation is implemented for consecutive d days, and continued until N - d days before reaching Mars, wherein N is 4 to 8, and d is 2 to 3, wherein the ground radio measurements are performed whereby a distance and a first radial velocity between the ground station and the probe are acquired by the ground station; and the celestial velocity measurement is performed whereby a second radial velocity between a specified star and the probe is independently obtained by the probe.
A system comprising: a plurality of virtual computing environments, VCEs , in a multi-cloud network ; a plurality of connect gateway routers , wherein each connect gateway router is associated with a logical endpoint within a logical tunnel mesh for respective VCEs; and a single software-defined networking, SDN, controller , executing on processing circuitry, configured to: establish the logical tunnel mesh to interconnect the plurality of VCEs in the multi-cloud network via respective connect gateway routers, wherein to establish the logical tunnel mesh, the SDN controller is configured to determine one or more logical tunnels from the logical tunnel mesh to establish one or more communication links between a first VCE and a second VCE of the plurality of VCEs in the multi-cloud network; and advertise the one or more logical tunnels to the first VCE and the second VCE. a plurality of virtual computing environments, VCEs , in a multi-cloud network ; a plurality of connect gateway routers , wherein each connect gateway router is associated with a logical endpoint within a logical tunnel mesh for respective VCEs; and a single software-defined networking, SDN, controller , executing on processing circuitry, configured to: establish the logical tunnel mesh to interconnect the plurality of VCEs in the multi-cloud network via respective connect gateway routers, wherein to establish the logical tunnel mesh, the SDN controller is configured to determine one or more logical tunnels from the logical tunnel mesh to establish one or more communication links between a first VCE and a second VCE of the plurality of VCEs in the multi-cloud network; and advertise the one or more logical tunnels to the first VCE and the second VCE. establish the logical tunnel mesh to interconnect the plurality of VCEs in the multi-cloud network via respective connect gateway routers, wherein to establish the logical tunnel mesh, the SDN controller is configured to determine one or more logical tunnels from the logical tunnel mesh to establish one or more communication links between a first VCE and a second VCE of the plurality of VCEs in the multi-cloud network; and advertise the one or more logical tunnels to the first VCE and the second VCE.
A circuit comprising at least one bolometer and at least one circuit for measuring a current Ibol flowing through a bolometer , comprising: an integrator of information representative of the difference between a current (Ibol) flowing through the bolometer and a first reference current Id during an integration period; an analog-to-digital converter receiving the output of the integrator and outputting a digital output word over at least one bit, at the rate of a sampling control signal; a digital-to-analog converter connected to the output of the analog-to-digital converter and delivering said first reference current Id, the value of the first reference current being equivalent to a quiescent current Ir of fixed value during our integration period to which is added and/or substracted a variable current Iv during the integration period and the value of which is a function of the value of the digital word present on the output of the analog-to-digital converter; and wherein the analog-to-digital converter delivers a series of a plurality of digital words at the sampling frequency, during the integration period, the series of digital words being a function of the difference between the current Ibol and the quiescent current Ir. an integrator of information representative of the difference between a current (Ibol) flowing through the bolometer and a first reference current Id during an integration period; an analog-to-digital converter receiving the output of the integrator and outputting a digital output word over at least one bit, at the rate of a sampling control signal; a digital-to-analog converter connected to the output of the analog-to-digital converter and delivering said first reference current Id, the value of the first reference current being equivalent to a quiescent current Ir of fixed value during our integration period to which is added and/or substracted a variable current Iv during the integration period and the value of which is a function of the value of the digital word present on the output of the analog-to-digital converter; and wherein the analog-to-digital converter delivers a series of a plurality of digital words at the sampling frequency, during the integration period, the series of digital words being a function of the difference between the current Ibol and the quiescent current Ir.
A sampling circuit for correlated double sampling, the sampling circuit comprising: - an input node , - a reset switch electrically connected with its first node to the input node , and electrically connected with its second node to a first node of a first capacitor , - a sampling switch electrically connected with its first node to the input node , and electrically connected with its second node to a first node of a second capacitor , - a first reference node , a second reference node , wherein a second node of the first capacitor is adapted to be electrically connected with, or is electrically connected with, the first reference node , and a second node of the second capacitor is adapted to be electrically connected with, or is electrically connected with, the second reference node , and wherein at least one of the second nodes of the first or second capacitor can be electrically connected with the corresponding reference node using a reference switch , - a first switch electrically connected with its first node to the second node of the first capacitor and with its second node to the first node of the second capacitor , - a second switch electrically connected with its first node to the first node of the first capacitor and with its second node to the second node of the second capacitor . - an input node , - a reset switch electrically connected with its first node to the input node , and electrically connected with its second node to a first node of a first capacitor , - a sampling switch electrically connected with its first node to the input node , and electrically connected with its second node to a first node of a second capacitor , - a first reference node , a second reference node , wherein a second node of the first capacitor is adapted to be electrically connected with, or is electrically connected with, the first reference node , and a second node of the second capacitor is adapted to be electrically connected with, or is electrically connected with, the second reference node , and wherein at least one of the second nodes of the first or second capacitor can be electrically connected with the corresponding reference node using a reference switch , - a first switch electrically connected with its first node to the second node of the first capacitor and with its second node to the first node of the second capacitor , - a second switch electrically connected with its first node to the first node of the first capacitor and with its second node to the second node of the second capacitor .
A system-in-package device, comprising a first die of a first die type, wherein a back side of the first die includes an opening for fluids , which are an input to the system-in-package device, and the first die type includes at least one of the following: a pressure sensor, a microphone, a micro pump, a liquid handling or measuring device, a gas handling or measuring device, a second die comprising an integrated circuit semiconductor; a connection member for input and output operations of the system-in-package device; a connecting layer , wherein the first die is included in a redimensioned die structure formed by solid material added to at least one side of the first die ; the redimensioned die structure includes a first surface and a second surface, wherein the second surface is opposite the first surface, and the front side of the first species die is part of the first surface of the redimensioned die structure; the connecting layer is on the first surface of the redimensioned die structure; the second die and the connection member are mounted in contact with the redimensioned die structure via the connecting layer on the first surface of the redimensioned die structure; a back side of the first die is exposed from the second surface of the redimensioned die structure; wherein the exposed back side of the first die includes the at least one opening for fluids .
A game apparatus including: • a housing ; • a motion measurement arrangement at least partially located within the housing and comprising a multi-axis pivot member movable relative to the housing in at least two axes and a sensor arrangement for measuring multi-axis movement of the pivot member ; and • a flexible tether having a free end coupled to a strikable object and a proximal end coupled to the pivot member ; the motion measurement arrangement being configured to measure an indication of one or more parameters of the strikable object's motion upon striking of the strikable object by a user, characterised by the motion measurement arrangement further comprising a socket and the pivot member having a ball portion engaged with the socket in a ball and socket configuration, the sensor arrangement including a sensor spaced apart from the pivot member and configured for contactless movement measurement of the pivot member and the sensor being a multi-axis hall effect sensor and the sensor arrangement further including a magnet and wherein the sensor is configured to measure movement of the magnet , relative to the sensor . • a housing ; • a motion measurement arrangement at least partially located within the housing and comprising a multi-axis pivot member movable relative to the housing in at least two axes and a sensor arrangement for measuring multi-axis movement of the pivot member ; and • a flexible tether having a free end coupled to a strikable object and a proximal end coupled to the pivot member ; the motion measurement arrangement being configured to measure an indication of one or more parameters of the strikable object's motion upon striking of the strikable object by a user, characterised by the motion measurement arrangement further comprising a socket and the pivot member having a ball portion engaged with the socket in a ball and socket configuration, the sensor arrangement including a sensor spaced apart from the pivot member and configured for contactless movement measurement of the pivot member and the sensor being a multi-axis hall effect sensor and the sensor arrangement further including a magnet and wherein the sensor is configured to measure movement of the magnet , relative to the sensor .
A transparent conductive film comprising a transparent plastic film substrate and an indium-tin composite oxide transparent conductive film laminated on at least one surface of the transparent plastic film substrate, wherein the indium-tin composite oxide transparent conductive film is in a semi crystalline state, a value of normalized integrated intensity of a diffraction peak measured as defined in the description by X-ray diffractometry in a plane due to a crystal of the indium-tin composite oxide transparent conductive film is 4 to 25 cps·°/nm, and the transparent plastic film substrate is coated with a curable resin layer a surface of which is made into projections and recesses, and the indium-tin composite oxide transparent conductive film is formed on the projections and recesses of the curable resin layer.
A saddle-type vehicle comprising: a rear wheel ; a body cover placed above the rear wheel ; a bottom surface of the body cover is formed with an upwardly projecting bend, a motive power battery shaped in a substantially rectangular parallelepiped is disposed in the body cover ; wherein an ECU is placed in the body cover , wherein the motive power battery and the ECU are placed above the rear wheel ; and the ECU is positioned lower than a bottom surface of the motive power battery . a rear wheel ; a body cover placed above the rear wheel ; a bottom surface of the body cover is formed with an upwardly projecting bend, a motive power battery shaped in a substantially rectangular parallelepiped is disposed in the body cover ; wherein an ECU is placed in the body cover , wherein the motive power battery and the ECU are placed above the rear wheel ; and the ECU is positioned lower than a bottom surface of the motive power battery .
An electronic device , comprising: a speaker ; an enclosure structure in which the speaker is mounted, the enclosure structure exposing a speaker opening of the speaker and providing a sealed enclosure for a rear portion of the speaker , wherein the enclosure structure further includes an electrically conductive portion ; and one or more electronic components coupled to the electrically conductive portion of the enclosure structure ; wherein the electrically conductive portion of the enclosure structure is configured to provide electromagnetic shielding for the one or more electronic components and forms part of the sealed enclosure of the speaker , and wherein the electrically conductive portion is grounded; wherein the one or more electronic components are mounted on a logic board , and the logic board is mounted on the electrically conductive portion of the enclosure structure , thereby allowing the one or more electronic components to be mechanically coupled to the electrically conductive portion of the enclosure structure via the logic board ; and wherein the electrically conductive portion of the enclosure structure includes a recess configured to receive the one or more electronic components when the logic board is mounted on the electrically conductive portion of the enclosure structure . a speaker ; an enclosure structure in which the speaker is mounted, the enclosure structure exposing a speaker opening of the speaker and providing a sealed enclosure for a rear portion of the speaker , wherein the enclosure structure further includes an electrically conductive portion ; and one or more electronic components coupled to the electrically conductive portion of the enclosure structure ; wherein the electrically conductive portion of the enclosure structure is configured to provide electromagnetic shielding for the one or more electronic components and forms part of the sealed enclosure of the speaker , and wherein the electrically conductive portion is grounded; wherein the one or more electronic components are mounted on a logic board , and the logic board is mounted on the electrically conductive portion of the enclosure structure , thereby allowing the one or more electronic components to be mechanically coupled to the electrically conductive portion of the enclosure structure via the logic board ; and wherein the electrically conductive portion of the enclosure structure includes a recess configured to receive the one or more electronic components when the logic board is mounted on the electrically conductive portion of the enclosure structure .